https://agrospectrumasia.com/rssfeed/r-and-d/agrigenomics agrigenomics https://agrospectrumasia.com/news/160/4900/chinas-salt-tolerant-rice-variety-sets-national-yield-record-in-xinjiang.html https://agrospectrumasia.com/news/160/4900/chinas-salt-tolerant-rice-variety-sets-national-yield-record-in-xinjiang.html Fri, 30 Oct 2026 16:27:10 +0530 A new salt- and alkali-tolerant rice variety developed in China has set a national yield record for seawater rice, recording a maximum measured output of 13,033.05 kg per hectare in Xinjiang’s Kashgar region. The yield was recorded on October 9 at an experimental demonstration base in Pahataikeli Township, Kashgar City. An expert panel conducted on-site measurements on plots classified as moderately to heavily salinised and alkalised, where Haidao No. 11 demonstrated its ability to withstand challenging soil conditions while delivering high productivity. The result marks a milestone for the Zhongnong seawater rice team, which has spent eight years developing the variety through a breeding strategy focused on matching crop genetics to local soil conditions. Combining salt-tolerant varieties with soil improvement The team's approach goes beyond developing rice that can tolerate saline-alkaline conditions. It combines variety improvement with gradual soil rehabilitation. Under the model, salt- and alkali-tolerant varieties are selected to suit the characteristics of local land, while rice cultivation practices, including flooding irrigation and leaching, are used to progressively reduce soil salinity. This integrated approach is designed to address two constraints simultaneously: improving crop adaptability to saline soils and making the land more suitable for sustained agricultural production. The latest yield result suggests that the model could support more productive use of land traditionally considered difficult to cultivate. However, its wider applicability will depend on local soil conditions, water availability and the performance of the variety across different production environments. Kashgar demonstration expands farmer income opportunities The commercial and livelihood impact of seawater rice cultivation is becoming more visible in Kashgar. The area under the crop in the region has reached 866.67 hectares, making it Xinjiang's largest concentrated contiguous demonstration area for seawater rice. The initiative has also increased annual income for 2,549 farming households in Pahataikeli Township by an estimated $1.04 million to $1.19 million (RMB 7 million to RMB 8 million), according to the information released by the project team. Beyond Xinjiang, Zhongnong Haidao has expanded seawater rice cultivation across 33 saline-alkaline regions in 12 provinces, autonomous regions and municipalities in China. The cumulative area covered has reached approximately 33,333 hectares. Next focus: Two harvests a year on saline-alkaline land The team is now exploring a production model that would enable farmers to harvest both wheat and rice annually on saline-alkaline land. The proposed wheat-rice rotation could improve land-use intensity and create additional production opportunities in areas where soil salinity has constrained conventional agriculture. The longer-term objective is to establish a national demonstration area for the comprehensive utilisation of saline-alkaline land. China's latest seawater rice achievement highlights the potential of combining crop breeding with soil-management practices to expand agricultural production beyond conventional arable land. The next challenge will be to establish whether the yield gains and farmer-income benefits can be replicated at scale while maintaining sustainable use of water and soil resources. ]]> https://agrospectrumasia.com/news/160/4897/engineered-citrus-virus-silences-key-psyllid-genes-offering-new-route-to-control-citrus-greening.html https://agrospectrumasia.com/news/160/4897/engineered-citrus-virus-silences-key-psyllid-genes-offering-new-route-to-control-citrus-greening.html Fri, 30 Oct 2026 12:05:00 +0530 Researchers have engineered a citrus-infecting virus to disrupt essential physiological functions in the Asian citrus psyllid, the insect responsible for spreading the bacterium associated with citrus greening disease. The approach significantly reduced the pest’s survival, lifespan and reproductive capacity, pointing to a potential new direction for citrus pest management. The study, published in Pest Management Science in October 2026, developed recombinant Citrus tristeza virus (CTV) vectors to deliver gene-silencing molecules targeting the Asian citrus psyllid (Diaphorina citri). The psyllid transmits Candidatus Liberibacter asiaticus, the bacterium associated with huanglongbing (HLB), commonly known as citrus greening. The disease is among the most damaging threats to citrus production worldwide, while control of its insect vector continues to depend heavily on repeated insecticide applications. Targeting the psyllid’s physiological balance The research focused on two genes involved in osmoregulation — the biological process that helps an organism maintain its internal water and solute balance. Using engineered CTV vectors, the researchers targeted the psyllid’s sucrose hydrolase gene (DcSuh) and aquaporin gene (DcAQP). These genes support the insect’s ability to regulate physiological conditions while feeding on the sucrose-rich phloem sap of citrus plants. The engineered virus enabled citrus plants to produce double-stranded RNA designed to silence the corresponding genes in psyllids feeding on them. This plant-mediated RNA interference approach disrupted functions considered essential to the insect’s development and survival. Effects extend to survival and reproduction Psyllids reared on citrus plants infected with the engineered viral vectors showed significant reductions in survival, longevity and fecundity. Gene silencing was also associated with developmental abnormalities and higher mortality. Importantly, the effects continued across two successive generations, suggesting that the RNA interference response was sustained beyond the initially exposed population. The findings identify the psyllid’s osmoregulatory pathways as potential targets for population suppression. They also demonstrate the potential of CTV-based vectors as a delivery platform for plant-mediated gene silencing in citrus. From laboratory findings to pest management potential The research offers a possible biological approach to complement existing strategies for managing the Asian citrus psyllid. By targeting essential insect genes through the host plant, the technology could provide an alternative research pathway to conventional insecticide-led control. However, the findings represent a research-stage advance rather than a commercially established pest-control solution. Further work will be needed to assess field performance, delivery reliability, durability, non-target effects, regulatory requirements and practical deployment at commercial orchard scale.   ]]> https://agrospectrumasia.com/news/160/4849/argentina-registers-first-gene-edited-potato-targeting-browning-and-processing-waste.html https://agrospectrumasia.com/news/160/4849/argentina-registers-first-gene-edited-potato-targeting-browning-and-processing-waste.html Mon, 19 Oct 2026 09:05:00 +0530 Argentina has registered its first gene-edited potato variety, marking a milestone for agricultural biotechnology and demonstrating how targeted genetic changes can address quality losses across the food-processing chain. Named OLI INTA, the variety was developed by the Agro-biotechnology Laboratory at the National Institute of Agricultural Technology (INTA) in Balcarce. It is designed to retain its colour after cutting and resist bruising caused by mechanical impacts during harvesting, transportation and storage. Potatoes are an important raw material for both fresh consumption and industrial processing. However, bruising and internal discoloration can reduce their market value and render tubers unsuitable for processing, generating waste and eroding returns across the supply chain. OLI INTA targets one of the principal causes of this deterioration: polyphenol oxidase, an enzyme responsible for enzymatic browning. Researchers used gene editing to inactivate the gene associated with the enzyme, limiting the formation of dark pigments in damaged tissue. “Gene editing made it possible to inactivate the polyphenol oxidase gene, preventing the formation of dark pigments in damaged tissues,” said Gabriela Massa, an INTA and National Scientific and Technical Research Council (CONICET) researcher and member of the development team. By reducing browning, the technology could help improve the quality of processed potato products and reduce the volume of raw material discarded during industrial processing, Massa said. Gene editing targets losses from field to factory Trials and evaluations found that OLI INTA did not develop subsurface bruising when tubers were subjected to impacts simulating those encountered during harvesting, transportation and storage, according to INTA. The trait could help processors recover more usable material from harvested potatoes, reduce quality-related losses and improve the commercial value of production. Its practical impact will depend on performance under commercial handling conditions and adoption across the supply chain. The development also illustrates the potential of gene editing to introduce specific traits into established crop varieties without incorporating genetic material from unrelated species. Sergio Feingold, former coordinator of INTA’s National Biotechnology Program, said the approach could change how breeders improve varieties that already perform well in production. “This technology makes it possible to introduce qualities into varieties that are already successful in production, representing a fundamental change in the way potatoes are bred,” Feingold said. Beyond reducing browning and bruising, gene-editing technologies could help breeders develop crops with traits suited to changing environmental conditions and emerging pest and disease pressures. Registration marks a regulatory milestone OLI INTA has been entered in Argentina’s National Cultivar Registry and National Register of Plant Variety Ownership, both administered by the National Seed Institute (INASE). The project brought together researchers from INTA and CONICET, with support from initiatives including Procisur and Fontagro. Its development reflects collaboration between agricultural research institutions and production-sector priorities, particularly the need to limit losses and improve the quality of industrial raw materials. According to the researchers, OLI INTA does not contain genetic information introduced from other species. In Argentina, it therefore follows the regulatory framework applicable to varieties developed through conventional breeding, rather than the pathway used for transgenic crops. The registration comes as countries reassess how to regulate new genomic techniques in agriculture. Argentina’s experience could offer a reference point for other Latin American markets considering the treatment of gene-edited crops. Brazil is among the markets where similar technologies could find a favourable regulatory pathway, according to the source institution. Any wider commercial deployment, however, will depend on country-specific regulatory decisions and the variety’s agronomic and processing performance. For Argentina’s potato sector, OLI INTA offers a targeted approach to a familiar industry problem: protecting quality between harvest and processing. Its broader significance lies in showing how gene editing can be applied to established crops to address measurable post-harvest losses. ]]> https://agrospectrumasia.com/news/160/4835/western-australia-backs-doubled-haploid-research-to-speed-wheat-and-barley-breeding.html https://agrospectrumasia.com/news/160/4835/western-australia-backs-doubled-haploid-research-to-speed-wheat-and-barley-breeding.html Thu, 15 Oct 2026 16:07:40 +0530 Western Australia is advancing research into next-generation plant breeding techniques to shorten the development cycle for wheat and barley varieties, as researchers target improvements in crop productivity, grain quality and grower profitability. The Department of Primary Industries and Regional Development (DPIRD), with co-investment from the Grains Research and Development Corporation (GRDC), has launched a three-year project to improve doubled haploid technology, a breeding technique that can produce genetically uniform, stable crop lines in a single generation. The initiative will focus on identifying and manipulating genes that influence how wheat and barley respond to laboratory tissue culture. By improving the efficiency of this process, researchers aim to increase the number of viable breeding lines produced while lowering the time and cost required to develop new varieties. Doubled haploid technology is widely used in cereal breeding because it can accelerate the production of homozygous, or genetically fixed, lines for field testing and selection. Conventional breeding generally requires several generations of self-pollination to achieve comparable genetic stability. DPIRD's existing doubled haploid programme supports plant breeding companies across Australia by supplying plant material that helps accelerate breeding cycles. The new research is intended to strengthen this capability and expand its usefulness across a wider range of wheat and barley genetic material. Genetic research targets breeding bottlenecks The project will combine comparative genomics and transcriptomics to identify genes associated with key stages of doubled haploid production, including embryo induction, chromosome doubling and green plant regeneration. Researchers will also examine transient gene silencing and gene expression techniques to temporarily switch specific genes off or on. According to DPIRD, these approaches do not alter the plant's DNA permanently or pass the temporary changes on to subsequent breeding generations. Another research focus is the role of female ovary-conditioned culture medium in promoting the development of male microspores into doubled haploid lines. Understanding the biological mechanisms behind this response could help researchers refine laboratory conditions and improve plant regeneration. Yong Han, DPIRD's research lead, said doubled haploid methods were valuable tools for crop breeding and genetics because they produce true-breeding lines suitable for selection and evaluation. The research will investigate how genetic and cellular responses can be manipulated to improve the efficiency of these methods, potentially expanding the range of crop material that can be processed successfully. Improving anther culture efficiency A central component of the project is the refinement of anther culture protocols. The technique uses the pollen-producing structures of a plant to stimulate the development of whole plants under controlled laboratory conditions, enabling breeders to generate genetically fixed lines within months. Despite its established use in cereal breeding, anther culture can produce inconsistent results across different genotypes. Some genetic materials respond poorly to tissue culture, resulting in fewer regenerated plants or a high proportion of sterile plants. These limitations reduce the number of robust doubled haploid lines available for subsequent breeding selection and genetic mapping. Improving the response across diverse wheat and barley varieties could therefore increase breeding throughput and make the technology more cost-effective. Han said the improved protocols could eventually be incorporated into future breeding practices, strengthening the contribution of doubled haploid technology to grain yield and quality improvement. Industry partnerships aim to accelerate genetic gain DPIRD will work closely with Australian breeding companies LongReach Plant Breeders and InterGrain. The research is also expected to support multiple projects under GRDC's Accelerating Genetic Gain Strategic Initiative. The programme reflects a broader effort to translate advances in genetics and biotechnology into practical gains for grain producers. Faster development of stable breeding lines can allow breeders to evaluate promising material sooner and potentially shorten the route from early-stage research to commercial variety development. GRDC Senior Manager Genetic Technologies Jessica Hyles said the initiative was investing in new technologies to help deliver improved varieties to growers faster. She said more efficient and cost-effective doubled haploid techniques could help breeders bring productivity gains and other valuable traits to Australian growers sooner. The project's immediate focus is on improving the breeding process rather than releasing a specific new wheat or barley variety. Its longer-term value will depend on whether the improved protocols consistently increase plant regeneration, reduce production costs and perform across a broad range of genetic material. If successful, the research could strengthen Australia's grain-breeding infrastructure and help breeders respond more quickly to evolving production challenges, including the need for higher yields, improved grain quality and greater sustainability. ]]> https://agrospectrumasia.com/news/160/4825/basf-nunhems-expands-lettuce-breeding-capacity-with-automated-greenhouse.html https://agrospectrumasia.com/news/160/4825/basf-nunhems-expands-lettuce-breeding-capacity-with-automated-greenhouse.html Tue, 13 Oct 2026 15:24:02 +0530 BASF’s vegetable seeds business, operating under the Nunhems brand, has completed a new automated greenhouse facility in ’s-Gravenzande, the Netherlands, strengthening its capacity to develop lettuce varieties for advanced indoor cultivation systems. The investment is designed to expand breeding capabilities for high-tech lettuce production, particularly the growing teen leaf segment. The facility’s automated greenhouse system will allow breeders to evaluate more breeding material using fewer seeds, generate larger and more robust datasets earlier in the development process, and make selection decisions with greater speed and precision. The investment reflects a broader shift in vegetable breeding, where controlled-environment agriculture is creating demand for varieties tailored to specific production systems. As indoor growers seek consistent performance from high-density cultivation, seed developers face growing pressure to deliver varieties suited to tightly managed growing conditions. Automation brings greater precision to lettuce breeding The new system expands the existing capabilities of BASF | Nunhems’ breeding station, enabling researchers to assess a larger volume of breeding material at an earlier stage. More comprehensive data can help breeders identify promising candidates sooner, potentially shortening the path from initial selection to commercial variety development. Peter Does, Product Developer at BASF | Nunhems, said the investment would strengthen the company’s ability to develop and select varieties for one of the fastest-growing segments of the global lettuce market. He added that innovation remained essential as high-tech lettuce production expands and growers’ requirements evolve. The facility’s focus on data-driven selection also highlights the role of automation in modern plant breeding. By improving the efficiency of evaluating breeding material, the system is intended to support more informed decisions while making better use of seeds and breeding resources. High-tech cultivation shapes the next generation of lettuce varieties The greenhouse will focus on high-tech teen leaf lettuce, a segment expanding alongside the adoption of controlled-environment production systems. These systems enable growers to manage growing conditions and cultivate lettuce at high density, creating specific requirements for variety performance. BASF | Nunhems has been involved in the segment since its early development, working with pioneering growers to develop varieties suited to advanced indoor production. Its Finstar and Arcticstar varieties reflect this experience and are used in some of the world’s most advanced indoor lettuce cultivation systems, according to the company. As indoor farming develops, the ability to match seed genetics to cultivation conditions is becoming increasingly important. Breeding programmes must account for the requirements of high-density systems while delivering the performance growers need from their production operations. ’s-Gravenzande strengthens its role as a breeding hub The investment marks another step in the development of the ’s-Gravenzande breeding station as BASF | Nunhems’ dedicated centre for lettuce breeding and product development. The additional capacity is expected to help the company evaluate more breeding material, identify promising selections earlier and bring new varieties to market more efficiently. The commercial impact will depend on how effectively the expanded breeding capabilities translate into varieties that meet growers’ needs across different high-tech production environments. For BASF | Nunhems, the new greenhouse strengthens the infrastructure supporting that effort as controlled-environment cultivation creates new opportunities—and more specialised demands—for vegetable seed innovation. ]]> https://agrospectrumasia.com/news/160/4813/fit-hrb-partner-on-disease-resistant-longer-lasting-tomato-varieties.html https://agrospectrumasia.com/news/160/4813/fit-hrb-partner-on-disease-resistant-longer-lasting-tomato-varieties.html Mon, 12 Oct 2026 16:34:14 +0530 Spanish vegetable seed company Fitó and Netherlands-based Hudson River Biotechnology (HRB) have entered a long-term partnership to accelerate the development of new tomato varieties, combining precision genome-editing capabilities with established breeding expertise. The collaboration will focus on generating new genetic variation directly in Fitó’s proprietary breeding lines, with research and development teams jointly prioritising traits that address growers’ production challenges and evolving consumer expectations. Disease and pest resistance will be central to the programme, alongside consumer-oriented characteristics such as shelf life and nutritional value. The partnership also seeks to address the pressures facing vegetable breeders, including changing growing conditions, evolving pest and disease threats, the transition towards lower agrochemical use and shifting market demands. The initiative combines Fitó’s germplasm, breeding capabilities and market knowledge with HRB’s BioMaas platform, which integrates genome editing, plant regeneration and trait expertise. The platform is designed to translate biological insights into useful genetic material that can be incorporated into commercial breeding programmes. “Successful breeding starts with understanding what growers, the value chain and consumers need, and finding the best way to translate that into new varieties,” said Laia Fitó, Chief R&D Officer at Fitó. She added that the partnership would expand the possibilities for innovation and help bring successful varieties to market faster. HRB will work as an extension of Fitó’s R&D operations, contributing technology and trait knowledge while collaborating on project priorities, trait selection and development decisions. The companies will adjust their programmes as research generates new findings, with the objective of moving promising traits into breeding material with practical commercial value. Ferdinand Los, CEO of HRB, said the partnership would bring together the companies’ capabilities and enable them to learn collaboratively while focusing on the requirements for advancing promising ideas into breeding programmes. Lotte Westerhof, Chief Scientific Officer at HRB, said combining the BioMaas platform and its trait catalogue with Fitó’s genetics and breeding expertise would help translate biological insights into material relevant to commercial breeding. The agreement also reflects the companies’ preparations for the European Union’s new regulatory framework for new genomic techniques (NGTs), which is expected to take effect in 2028. Both companies are working to develop the capabilities needed to respond as the regulatory and commercial landscape evolves. The partnership highlights the growing role of genome-editing technologies in vegetable breeding, particularly as breeders seek to develop varieties that can withstand changing environmental conditions, reduce dependence on crop-protection chemicals and meet increasingly demanding quality expectations. Its commercial significance will ultimately depend on how effectively the research translates into improved varieties for growers and consumers. ]]> https://agrospectrumasia.com/news/160/4815/china-grants-gmo-safety-certificate-to-ssmm-15-corn-seed-technology.html https://agrospectrumasia.com/news/160/4815/china-grants-gmo-safety-certificate-to-ssmm-15-corn-seed-technology.html Mon, 12 Oct 2026 16:43:38 +0530 China has approved its first nuclear male sterility transformation event for corn seed production, marking a step towards mechanising hybrid seed production and reducing reliance on labour-intensive detasseling. The SSMM-15 transgenic corn line, jointly developed by China Agricultural University and Sichuan Tianneng Jingxiu Biotechnology Co. Ltd., has received an agricultural genetically modified organism (GMO) safety certificate for production application from China’s Ministry of Agriculture and Rural Affairs. Conventional hybrid corn seed production typically involves manually removing tassels from female parent plants to prevent self-pollination. The process requires substantial labour, adds to production costs and can affect seed purity if detasseling is incomplete or inconsistent. SSMM-15 uses nuclear male sterility technology to eliminate the need for manual detasseling, enabling greater mechanisation of seed production. The approach is intended to improve operational efficiency, lower costs and reduce the risk of human error in maintaining hybrid seed purity. Field results indicate higher seed yields Field measurements conducted on September 22 in a commercial seed production field in Zhangye, Gansu province, reported yield increases of more than 15 per cent per unit area for male-sterile lines compared with hybrid seed production using manual detasseling. The assessment was led by the National Key Laboratory of Corn Biological Breeding at China Agricultural University, with participation from experts associated with the Gansu Provincial Seed Administration Station, Zhangye City Seed Management Bureau, Lanzhou University, Gansu Academy of Agricultural Sciences and Hexi University, among other institutions. The results also indicated increases in the number of rows per ear and kernels per row. These findings suggest potential productivity gains, although commercial performance will depend on production conditions and the effectiveness of the technology at scale. From regulatory approval to commercial application The safety certificate represents a regulatory milestone in moving SSMM-15 from research towards industrial application. The National Key Laboratory of Corn Biological Breeding at China Agricultural University said it would continue refining the technology and accelerating its development and commercialisation. The development highlights China’s efforts to advance biotechnology-led improvements in crop breeding and seed production. By reducing manual intervention and improving production efficiency, nuclear male sterility technology could help address labour constraints and support large-scale hybrid corn seed production. The next test will be whether the technology can deliver consistent seed purity, productivity and cost advantages across commercial operations. Its broader adoption will also depend on implementation requirements and the regulatory framework governing genetically modified crops in China. ]]> https://agrospectrumasia.com/news/160/4801/hutton-scientists-highlight-root-soil-science-in-european-crop-breeding-debate.html https://agrospectrumasia.com/news/160/4801/hutton-scientists-highlight-root-soil-science-in-european-crop-breeding-debate.html Thu, 08 Oct 2026 17:22:18 +0530 Scientists from The James Hutton Institute will take their latest findings on crop roots, soil interactions and breeding to the European Parliament on October 12, as policymakers, researchers, breeders, farmers and industry representatives examine how scientific advances can be translated into practical agricultural solutions. The policy session is being organised through the Horizon Europe projects Root2Res and BarleyMicroBreed. The discussions will focus on the role of root systems and soil biodiversity in developing crops capable of maintaining productivity under drought, nutrient constraints and other environmental stresses. Professor Tim George, Director of the International Barley Hub hosted by the Hutton and Deputy Coordinator of Root2Res, will introduce the projects and contribute to discussions linking food security with soil biodiversity. “As climate change places increasing pressure on agricultural systems, it is important that we discuss with policymakers the need for crops that can maintain productivity while using resources more efficiently,” George said. “Understanding how roots interact with soils and beneficial soil organisms gives us new opportunities to breed crops that are more resilient to drought, nutrient limitations and other environmental stresses.” He added that evidence generated through Root2Res and BarleyMicroBreed shows how investment in root-focused research and breeding could deliver practical benefits for farmers, food security and environmental sustainability. Crop breeding has traditionally placed greater emphasis on above-ground characteristics such as yield and disease resistance, partly because root systems are considerably more difficult to study. Researchers are increasingly looking below ground, however, as roots influence how efficiently crops access water and nutrients, tolerate environmental stress and contribute to soil carbon storage. The two projects have developed policy recommendations aimed at accelerating the development and adoption of crop varieties that can use natural resources more efficiently without compromising productivity. Their recommendations are aligned with the European Commission’s Strategic Approach to Research and Innovation and broader ambitions outlined in its Vision for Agriculture and Food. Root2Res involves 22 partners across the European Union, United Kingdom, Switzerland, Morocco and South Africa. The project is developing tools and breeding approaches to improve crop tolerance to abiotic stresses while increasing the potential for carbon sequestration. Its research covers barley, potatoes, faba bean and sweet potato, with scientists developing advanced root phenotyping technologies, genetic tools and modelling approaches to help breeders identify varieties better suited to challenging growing conditions. BarleyMicroBreed complements this work by examining how barley interacts with naturally occurring soil microbiomes. The project is investigating breeding strategies that can harness beneficial soil microbial communities to improve drought resilience and resource-use efficiency. Together, the initiatives are building a case for giving below-ground traits and soil biodiversity a more prominent role in crop improvement and agricultural policy. The European Parliament session will bring the research directly into discussions with Members of the European Parliament and European Commission representatives on how research and innovation can contribute to a more resilient and sustainable European food system. ]]> https://agrospectrumasia.com/news/160/4797/embrapa-begins-crispr-research-to-develop-pigs-with-greater-resistance-to-african-swine-fever.html https://agrospectrumasia.com/news/160/4797/embrapa-begins-crispr-research-to-develop-pigs-with-greater-resistance-to-african-swine-fever.html Wed, 07 Oct 2026 18:20:56 +0530 Brazil’s agricultural research agency Embrapa has begun research into gene-edited pigs that could be less susceptible to African Swine Fever (ASF), opening a potential new front in the fight against one of the most damaging diseases facing the global pig industry. Led by Embrapa Pig and Poultry, the project is currently at an early laboratory stage. Researchers are first editing pig cells to investigate whether specific changes to genes involved in the interaction between pigs and the ASF virus can alter the cells’ response to infection. If the results are promising, the work could eventually move to embryos and, later, gene-edited animals. Brazil has remained free of ASF since the early 1980s, making prevention of the disease’s reintroduction a strategic priority for its pork industry. For Embrapa, developing the scientific capability before the disease becomes an immediate domestic threat could provide another layer of preparedness for the country’s pig sector. Looking for genetic weak points in ASF infection The research is focused on understanding how the ASF virus interacts with pig cells and whether that interaction can be disrupted through highly targeted genetic changes. The team is using the CRISPR/Cas gene-editing system to modify predetermined sites in DNA. Among the initial targets are SLA-DMA and SLA-DMB, genes that previous research has identified as potentially important in the interaction between pigs and ASF virus. “We can select a candidate, modify it and ask: does this change affect the cell’s response to the virus?” says Dr Mariana Groke Marques, the researcher leading the project. The objective is not simply to identify a gene associated with resistance, but to understand several points at which the virus and host interact. Researchers are already considering additional genetic targets and, at a later stage, could investigate whether combinations of favourable genetic changes produce a stronger effect. “Rather than assuming that modifying a single gene will be the solution to a disease as complex as ASF, we want to identify different points in the interaction between the virus and the host and determine whether combining these changes can produce a pig that is less susceptible to the disease,” Marques says. From cell cultures to potentially gene-edited pigs The project is still focused on building and refining the laboratory platform needed for the work. Embrapa has established pig fibroblasts in culture and conducted computational analyses to identify DNA sites that could be modified. The researchers are adapting polyethyleneimine, or PEI, a technology previously used by the Embrapa team to introduce genetic material and generate transgenic cells and embryos. Applying the technique to gene editing could reduce reliance on some commercial solutions while creating a platform that could eventually support research into other traits related to pig health and disease resistance. But the scientific path remains long. Researchers have not yet demonstrated that the targeted genetic changes make pig cells resistant to ASF. The immediate task is to establish that the intended edits can be successfully introduced and then determine whether the modified cells behave differently when exposed to the virus. Only if those experiments produce positive results would the research move towards embryos and subsequently gene-edited animals. Commercial pigs remain a distant prospect Even successful laboratory results would not translate quickly into pigs on commercial farms. Researchers would first need to establish that the genetic modifications are effective and safe, while ruling out unintended effects on biological functions, development, reproduction and animal performance. Regulatory requirements would add another layer, particularly for a technology involving gene-edited livestock. Consumer acceptance and the position of importing markets would also influence whether such animals could ultimately enter commercial production. “There is no estimate yet for when pigs carrying these traits could reach commercial farms,” the research team indicates, reflecting the early stage of the programme. For Embrapa, the benchmark is therefore broader than disease resistance alone. Any resulting animal would need to remain healthy and perform at least as well as conventional pigs while gaining a meaningful advantage against ASF. “The aim is to produce a healthy animal that has a real advantage against ASF without the alteration having a detrimental effect on other characteristics. Its performance must be at least as good as that of non-edited animals,” Marques says. A new layer of biosecurity Gene editing would not replace conventional biosecurity, surveillance or disease prevention. Instead, it could eventually add a biological layer of protection built into the animal itself. “The difference is that we would also have a protective characteristic linked to the animal itself,” Marques says. That possibility gives the research significance beyond Brazil’s immediate ASF status. The country’s disease-free position provides researchers with an opportunity to develop and test the underlying technology before an outbreak creates pressure for an emergency response.   ]]> https://agrospectrumasia.com/news/160/4794/harmoniz-acquires-hw-seeds-to-strengthen-its-bet-on-flavor-driven-tomato-breeding.html https://agrospectrumasia.com/news/160/4794/harmoniz-acquires-hw-seeds-to-strengthen-its-bet-on-flavor-driven-tomato-breeding.html Wed, 07 Oct 2026 17:58:29 +0530 Harmoniz has acquired Dutch tomato breeding company HW Seeds, bringing together two businesses with a shared focus on genetics, flavor and high-tech protected production as competition in fresh produce breeding increasingly shifts towards consumer preferences. Based in Winschoten, the Netherlands, HW Seeds is known for developing tomato varieties with an emphasis on flavor and eating quality, alongside breeding expertise suited to high-tech production environments. Its capabilities complement Harmoniz’s existing breeding platform and consumer-driven approach to variety development. The acquisition is expected to broaden Harmoniz’s innovation pipeline, improve the speed at which new varieties reach the market and strengthen its ability to respond to changing requirements from growers, customers and consumers globally. “At Harmoniz, we start with what consumers want and connect those needs all the way back to breeding,” says Ofer Ben-Zvi, CEO of Harmoniz. “HW Seeds shares that vision. They have built an impressive business by putting flavor, quality, and customer needs at the core of variety development. Bringing together our genetics and expertise creates exciting new possibilities to deliver even better eating experiences for consumers and greater value across the chain.” Putting taste at the centre of breeding HW Seeds has built its position around a relatively straightforward proposition: tomatoes need to perform commercially without compromising the qualities that determine whether consumers want to buy them again. That focus gives Harmoniz an additional layer of breeding expertise as the company expands its work in protected crops. Combining the two businesses’ genetic resources and breeding capabilities is expected to create more opportunities to develop varieties that balance taste, quality and production performance. “From the beginning, our goal at HW Seeds has been to develop tomatoes that people genuinely enjoy eating while giving growers and customers varieties that work for their businesses,” says Roel Huisman, Director, HW Seeds. “At the heart of this has been the breeding expertise and dedication of my long-time partner, Arie van der Windt, HW Seeds Breeder, together with our exceptional team.” Huisman says joining Harmoniz will allow HW Seeds to pursue the same philosophy at greater scale, while benefiting from what the companies see as a strong cultural and strategic fit. The acquisition also gives Harmoniz another route to accelerate product development. In a breeding business, the commercial value of a new variety depends not only on its genetic characteristics but also on how quickly it can move from development to growers and markets. Harmoniz said the combination with HW Seeds will help shorten that path. Building a broader protected-crop platform The transaction forms part of Harmoniz’s wider strategy of combining organic growth with targeted acquisitions. The company is seeking to deepen its capabilities in flavor, taste and the overall eating experience while expanding across the geographies and market segments in which it operates. “This is ultimately about our commitment to continue providing greater value across the value chain,” says Ben-Zvi. “Markets will continue to change, and so will the expectations of growers, customers and consumers. Our job is to stay ahead of those needs and keep raising the bar on what great vegetables can deliver.” With HW Seeds now part of the business, Harmoniz is effectively adding specialist tomato genetics and flavor-led breeding expertise to its broader consumer-driven model. The deal underscores a wider shift in protected horticulture: breeding is increasingly being asked to solve not just production challenges, but the harder question of what makes consumers choose one vegetable over another. ]]> https://agrospectrumasia.com/news/160/4798/symbiomics-and-valeouro-partner-to-bring-genome-edited-biologicals-to-brazil.html https://agrospectrumasia.com/news/160/4798/symbiomics-and-valeouro-partner-to-bring-genome-edited-biologicals-to-brazil.html Wed, 07 Oct 2026 18:29:30 +0530 The companies aim to combine Symbiomics’ proprietary microorganism discovery and genome-editing platform with Valeouro’s knowledge of Brazilian agriculture, market access, technical capabilities and industrial infrastructure. The first products emerging from the partnership are expected to reach the market within two to three years. The alliance comes as biologicals become increasingly important in Brazil’s crop protection market. According to CropLife Brasil, the biologicals sector generated R$6.2 billion in 2025, up 15 per cent from the previous year, while the area treated with biological products increased 28 per cent to 194 million hectares. Soybean, corn and sugarcane account for more than 90 per cent of biologicals use in Brazil. Biocontrol products—including bioinsecticides, bionematicides and biofungicides—generated approximately R$5.4 billion in revenue in 2025. With more than 700 biological products already registered in Brazil, the next competitive frontier is increasingly likely to be differentiation rather than simply adding another product to an expanding catalogue. Genome editing could provide companies with a way to improve the characteristics of microorganisms used in agricultural biologicals and develop products designed to deliver more consistent performance under varying field conditions. From microorganism discovery to engineered performanceGenome editing gives researchers the ability to make targeted changes to microorganisms of agricultural interest. In biological crop protection, the technology could potentially improve traits such as robustness, efficiency and stability, while helping products perform more consistently across different soil and climatic conditions. For Symbiomics, the technology is being combined with a broader platform for discovering and selecting microorganisms. “To develop a product that truly differentiates itself from what is already available on the market, it is necessary to expand the diversity of microorganisms explored and use technologies capable of enhancing their characteristics,” says Rafael de Souza, CEO and co-founder of Symbiomics. “Symbiomics has a proprietary collection of thousands of isolated microorganisms and combines microbiome and genome-editing technologies to develop high-performance biological products based on more robust microorganisms for biocontrol. Our goal is to turn this capability into a product with clear differentiators and consistent field performance that contributes to growers’ productivity and profitability. I see Valeouro as the ideal structure and the right partner to scale this technology and bring it to growers,” he adds. The partnership gives that discovery capability an industrial and commercial route into the Brazilian market. Founded in 2021, Valeouro has already built a portfolio of more than 20 products marketed in Brazil and has been increasing its investment in research and development, supported by Finep, Brazil’s innovation funding agency. Building the bridge to industrial scale The partnership is also designed around a problem that can determine whether promising biological technologies ever become viable products: scaling laboratory discoveries into commercial manufacturing. Valeouro’s planned biomanufacturing facility is intended to provide the industrial capacity required to manufacture new technologies at scale, including products emerging from the Symbiomics alliance. “Our biomanufacturing facility, scheduled to begin operations in the coming years, was designed to provide the industrial capacity required to scale up and manufacture new technologies,” says Luciano Galera, CEO of Valeouro Biotec. “The facility will enable us to take disruptive products from the development stage to industrial scale, as exemplified by what is emerging from our alliance with Symbiomics, strengthening the synergy between the two companies.” The companies also see speed of development as a competitive advantage. Biological products can take years to move from discovery through optimisation, testing and commercialisation. Symbiomics says it has spent the past five years building a platform that integrates microbiome research, genomic sequencing, machine learning and genome editing to improve the selection and development process. “In biologicals, gaining speed does not mean eliminating steps, but making better decisions earlier,” says Jader Armanhi, COO and co-founder of Symbiomics. The platform is intended to identify and improve microorganisms with greater precision, increasing the probability of developing high-performance products within shorter development cycles. Valeouro’s involvement from the outset adds an industrial perspective to the process and is expected to shorten the distance between technology development and commercial production. The next test is field performance The commercial case for the partnership will ultimately depend on whether genome-edited microorganisms can deliver measurable advantages under real farming conditions. The companies expect their technology to be incorporated into disease-management programmes, with the potential to improve productivity while lowering operating costs per hectare. That makes performance consistency as important as the underlying scientific novelty. “More than developing a new product, we want to transform scientific innovation into a solution that delivers performance, consistency, and value to growers,” says Flávia Camargo, Executive Manager of Research, Development, and Innovation at Valeouro Biotec. “This is our vision for the future: to contribute to building a new generation of biological products that are more efficient, competitive, and capable of generating a real impact in the field.” For Brazil’s biologicals industry, the partnership signals a shift towards a more sophisticated phase of product development. As the market expands and the number of registered solutions rises, simply being biological may no longer be enough. The next advantage could come from using biotechnology to make microbial products more precise, reliable and differentiated—and from building the industrial infrastructure to get those innovations into farmers’ hands. ]]> https://agrospectrumasia.com/news/160/4621/china-unveils-jingfan-chip-1-0-to-cut-tomato-breedings-dependence-on-imported-gene-chips.html https://agrospectrumasia.com/news/160/4621/china-unveils-jingfan-chip-1-0-to-cut-tomato-breedings-dependence-on-imported-gene-chips.html Mon, 07 Sep 2026 16:50:34 +0530 China has unveiled its first high-precision solid-phase gene chip developed specifically for tomato breeding with fully independent intellectual property rights, marking a significant step toward reducing the seed industry’s reliance on imported core breeding technologies. Named “Jingfan Chip 1.0,” the technology was officially released in Beijing and is designed to support genetic analysis and molecular breeding across the tomato breeding pipeline. Its developers say the chip brings key hardware, reagents, software algorithms and related intellectual property under domestic control, creating what they describe as a new “China Chip” era for tomato breeding. The development comes as seed companies increasingly turn to molecular tools to accelerate breeding, identify valuable genetic traits and improve the precision of variety development. By bringing these capabilities into a domestically controlled platform, Jingfan Chip 1.0 could give Chinese breeders greater control over costs, supply chains and technology upgrades. The chip was jointly developed by Beijing Tongzhou International Seed Industry Technology Co., Ltd., the Vegetable Research Institute of the Beijing Academy of Agriculture and Forestry Sciences, the College of Life Sciences of Shandong Agricultural University, Suzhou Laso Biochip Technology Co., Ltd., and other institutions. Jingfan Chip 1.0 contains nearly 5,000 core genetic loci covering traits that are commercially important to tomato breeding, including yield, quality, pest and disease resistance, and tolerance to environmental stresses. The loci were selected from more than 1,100 tomato inbred lines, giving the platform a broad genetic base for breeding applications. The chip achieves a reported 99.12 per cent detection rate and 99.85 per cent detection repeatability, with both metrics described as reaching internationally advanced levels. Beyond the genetic markers themselves, the technology's strategic significance lies in its attempt to establish an end-to-end domestic ecosystem. The developers say Jingfan Chip 1.0 has secured independent intellectual property rights across the full technology chain, including scanners, chips, reagents and software algorithms. A single experimental run can be completed within 72 hours, according to the developers, while the platform is designed to offer cost advantages and allow more flexible technology upgrades. That combination could matter as breeding moves toward increasingly data-driven models. Traditional breeding depends heavily on repeated field selection over multiple generations. Molecular marker technologies allow breeders to identify genetic characteristics earlier, potentially narrowing the number of plants that need to be carried forward and making breeding programs more targeted. Jingfan Chip 1.0 is designed to operate across eight major application areas, positioning it as a platform rather than a single-purpose testing tool. These include precise identification of germplasm resources, genetic diversity analysis, molecular marker-assisted breeding, genomic selection breeding, variety identification and protection, detection of genetically modified components, identification of essentially derived varieties (EDV), and genome-wide association analysis and QTL mapping. The breadth of these applications means the technology can potentially connect activities that have traditionally been handled through separate stages of a breeding program—from understanding genetic resources and identifying useful traits to selecting breeding materials and protecting commercial varieties. Imported breeding technologies have played an important role in enabling molecular analysis, but dependence on overseas platforms can expose breeders to constraints involving supply, cost, technology access and future upgrades. A domestically developed system gives breeding organizations greater scope to adapt the platform to local germplasm, crop-specific requirements and evolving breeding strategies. The launch also reflects a broader push across China's agricultural technology sector to build domestic capabilities in technologies that sit further upstream in the innovation chain. For the seed industry, that increasingly means controlling not only varieties and germplasm, but also the genomic tools used to discover and develop them. If Jingfan Chip 1.0 achieves wider adoption, its impact could extend beyond faster genetic testing. A common domestic platform could help standardize molecular breeding workflows, generate larger datasets and strengthen the integration of genomic information into commercial breeding programs. The immediate focus is tomatoes, but the underlying business model points to a larger opportunity: building indigenous technology platforms around the genetic infrastructure of crop improvement.   ]]> https://agrospectrumasia.com/news/160/4594/cortevas-vylor-unveils-corn-pipeline-with-new-yield-and-insect-control-technologies.html https://agrospectrumasia.com/news/160/4594/cortevas-vylor-unveils-corn-pipeline-with-new-yield-and-insect-control-technologies.html Wed, 02 Sep 2026 16:42:27 +0530 Corteva has unveiled the corn innovation pipeline of Vylor, its planned advanced seed and genetics business, ahead of the company’s scheduled separation . The portfolio is designed to reinforce Vylor’s position in the global corn seed market while giving farmers access to new technologies aimed at improving yields, protecting crops and increasing production returns. At the centre of the pipeline is what the company describes as the industry’s first trait specifically developed to improve both yield and yield stability. Field trials across the Americas showed corn carrying the trait delivering an average gain of three bushels per acre, with increases reaching as much as 10 bushels per acre. Vylor expects the technology to become a key component of its next generation of corn products. The company estimates that its corn portfolio could generate more than $2 billion in additional revenue by 2035, including licensing income. Seven new corn technology platforms are planned through 2035, and together they are expected to cover about 90 per cent of Vylor’s corn business. The first major launches are scheduled for Latin America in 2028. Vylor plans to introduce Abranvo technology, combining fall armyworm protection through two new modes of action with the yield and yield-stability trait and several herbicide-tolerance options. A subsequent insect-control platform will add two further proprietary modes of action to strengthen protection against fall armyworm. The innovation programme is expected to reach North America in 2029, when Vylor plans to introduce its next-generation above-ground insect-control technology alongside the yield and yield-stability trait. Disease management is another major part of the pipeline. Vylor plans to commercialise its multi-disease-resistant corn technology, which the company says is an industry first and was developed using gene-editing technology. The platform is designed to address four major diseases: Northern Corn Leaf Blight, Grey Leafspot, Southern Rust and Anthracnose Stalk Rot. The company also plans to introduce reduced-stature corn using its next-generation technology platforms, with products targeted at segments where shorter plants can provide the greatest value to growers. Below-ground insect protection is set for another technology shift in 2031. Vylor expects to launch a corn rootworm product in North America featuring two new non-Bt modes of action, including a plant-based technology. The company sees the platform as a potential new approach to managing one of the most persistent insect threats to corn production. The pipeline reflects a broader strategy built around three priorities: developing technologies that deliver measurable value to farmers, using elite germplasm to strengthen brands and expand licensing opportunities, and building proprietary biotechnology and gene-editing platforms that can shift Vylor from a technology licensee to a licensor. The company’s planned portfolio builds on more than a century of corn breeding and genetics expertise. By combining that breeding base with new biotech, gene-editing and crop-protection technologies, Vylor aims to offer farmers a broader set of options across major corn-growing regions while creating additional revenue through direct product sales and licensing. ]]> https://agrospectrumasia.com/news/160/4420/icrisat-advances-precision-crop-breeding-through-landmark-gene-editing-partnership.html https://agrospectrumasia.com/news/160/4420/icrisat-advances-precision-crop-breeding-through-landmark-gene-editing-partnership.html Wed, 05 Aug 2026 16:01:57 +0530 The International Crops Research Institute for the Semi-Arid Tropics (ICRISAT) has secured long-term humanitarian access to CRISPR-Cas9 gene-editing technology, marking one of the most significant biotechnology developments for smallholder agriculture in the Global South. The licensing agreement with Corteva and The Broad Institute establishes a new pathway for accelerating the development and deployment of climate-resilient crop varieties across Asia and Africa. The agreement gives ICRISAT the ability to integrate one of modern agriculture's most powerful breeding technologies into its crop improvement programs, enabling researchers to develop drought-, heat-, pest- and disease-tolerant varieties of pulses, millets and oilseeds more rapidly than conventional breeding methods. The move comes as climate variability, land degradation and growing food demand intensify pressure on agricultural systems across rainfed regions, where millions of smallholder farmers remain highly vulnerable to erratic weather and declining productivity. A Strategic Shift in Crop Innovation Unlike transgenic technologies that introduce foreign genetic material, CRISPR-Cas9 enables scientists to make precise edits within a plant's own genome, significantly reducing breeding timelines while preserving desirable agronomic characteristics. For ICRISAT, whose mandate spans some of the world's most climate-stressed agricultural landscapes, the agreement unlocks a complete innovation pipeline—from laboratory research and product development to farmer-ready deployment. The institute plans to apply gene-editing technologies across its flagship crops, including sorghum, pearl millet, finger millet, chickpea, pigeonpea and groundnut, targeting traits that directly influence farm productivity, climate resilience and nutritional outcomes. Industry observers view the agreement as a strategic milestone that strengthens public-sector access to advanced biotechnology at a time when gene editing is emerging as a central pillar of global agricultural innovation. Strengthening Smallholder Agriculture ICRISAT Director General Dr. Himanshu Pathak described the agreement as a transformative step for dryland agriculture and the millions of farming households dependent on it. According to the institute, combining Corteva's gene-editing expertise with ICRISAT's globally recognized breeding programs and partnerships with national agricultural research systems will accelerate the delivery of improved crop varieties capable of withstanding increasingly frequent droughts, floods and pest outbreaks. Beyond improving crop resilience, the initiative is expected to enhance farm profitability by increasing yields, reducing production risks and improving nutritional quality, while supporting food security without requiring additional agricultural land. Building an End-to-End Innovation Ecosystem The agreement also reinforces ICRISAT's integrated capabilities across genomics, phenomics, crop breeding, seed systems and technology dissemination. By combining advanced molecular breeding with established field-testing networks and national research partnerships, the institute aims to shorten the timeline between scientific discovery and farmer adoption—a persistent challenge in public-sector agricultural research. The collaboration also reflects a growing trend in agricultural biotechnology, where proprietary technologies are increasingly being deployed through humanitarian licensing models to expand access for developing economies. A Growing Role for Gene Editing Corteva said the collaboration represents an opportunity to extend cutting-edge biotechnology beyond commercial agriculture and into smallholder farming systems facing the greatest climate risks. The partnership underscores the expanding role of gene editing in addressing global food security challenges as governments and research institutions seek faster, more precise tools to develop crops capable of adapting to changing climatic conditions. As Asia and Africa confront rising temperatures, water scarcity and population growth, the agreement positions ICRISAT to become one of the leading public-sector institutions translating gene-editing science into practical agricultural solutions for millions of resource-constrained farmers. ]]> https://agrospectrumasia.com/news/160/4403/limagrain-secures-global-genome-editing-license-from-qi-biodesign-to-accelerate-next-generation-crop-breeding.html https://agrospectrumasia.com/news/160/4403/limagrain-secures-global-genome-editing-license-from-qi-biodesign-to-accelerate-next-generation-crop-breeding.html Mon, 03 Aug 2026 14:17:24 +0530 French seed company Limagrain has signed a worldwide licensing agreement with Chinese genome-editing specialist Qi Biodesign to access a portfolio of advanced genome-editing technologies, strengthening its efforts to develop the next generation of field and vegetable crop varieties. The agreement marks a strategic step in Limagrain's long-term innovation roadmap as the company expands beyond conventional breeding into advanced genomic technologies capable of delivering crops with improved productivity, resilience and sustainability. Under the partnership, Limagrain will gain immediate access to Qi Biodesign's proprietary portfolio of genome-editing tools, including a novel CRISPR nuclease designed to complement first-generation genome-editing systems. The agreement also establishes a framework through which Limagrain can leverage future innovations emerging from Qi Biodesign's research pipeline. Rather than relying on a single editing platform, the collaboration enables Limagrain to diversify its genome-editing capabilities, providing researchers with multiple tools tailored to different crops, traits and breeding objectives. The partnership comes as genome editing gains momentum as one of the most transformative technologies in modern plant breeding. While conventional CRISPR systems have already demonstrated their value, breeders are increasingly seeking specialized editing platforms to tackle more complex genetic improvements involving disease resistance, climate resilience, resource-use efficiency and crop quality. The timing is also significant for the European seed industry. The agreement coincides with ongoing efforts by the European Union to modernize regulations governing New Genomic Techniques (NGTs), a policy shift expected to expand opportunities for the commercial development of genome-edited crop varieties across the region. By combining its elite germplasm and breeding expertise with Qi Biodesign's genome-editing technologies, Limagrain aims to accelerate the development of improved crop varieties capable of helping farmers respond to climate change, evolving pest and disease pressures, resource constraints and increasing sustainability requirements. Beyond access to technology, the collaboration also reflects the growing convergence between global seed companies and biotechnology innovators as advanced breeding increasingly depends on partnerships that combine genetics, molecular biology and precision genome engineering. "The future of plant breeding will be driven by scientific excellence, technological diversity and strategic partnerships," said Sébastien Chauffaut, Chief Executive Officer of Limagrain and Chairman of the Scientific Committee. He said the agreement broadens Limagrain's access to complementary breeding technologies while strengthening its ability to develop improved crop varieties that address some of agriculture's most pressing global challenges. Kevin Zhao, Chief Executive Officer and Co-Founder of Qi Biodesign, said the partnership represents an important milestone in expanding the application of the company's proprietary genome-editing technologies across global crop breeding programs. He added that combining Qi Biodesign's scientific innovations with Limagrain's expertise in crop genetics, breeding and international seed markets would accelerate the delivery of improved crop varieties supporting sustainable agriculture worldwide. The collaboration further strengthens Limagrain's position among leading global seed companies investing in next-generation breeding technologies while reinforcing Qi Biodesign's growing role as a provider of advanced genome-editing platforms for international agricultural research and commercial crop development. ]]> https://agrospectrumasia.com/news/160/4359/intergrain-to-lead-australias-national-faba-bean-breeding-program-under-9-5-mn-partnership.html https://agrospectrumasia.com/news/160/4359/intergrain-to-lead-australias-national-faba-bean-breeding-program-under-9-5-mn-partnership.html Mon, 27 Jul 2026 16:30:40 +0530 Australian plant breeding company InterGrain has been selected to lead a new National Faba Bean Breeding Program under a $9.5 million, 2.5-year co-investment partnership with the Grains Research and Development Corporation (GRDC) and Adelaide University, marking a significant step towards strengthening Australia's pulse breeding capabilities and improving the competitiveness of its faba bean industry. The collaborative program will consolidate Australia's faba bean breeding activities into a single national initiative focused on developing improved varieties with higher yield potential, stronger disease resistance, enhanced grain quality and wider adaptation across major production regions. The breeding program will target South Australia, Victoria, New South Wales and Western Australia while also supporting expansion into emerging production areas. The initiative reflects a strategic shift towards a nationally coordinated breeding framework designed to improve research efficiency, optimise resource utilisation and accelerate the delivery of improved genetics to Australian grain growers. By integrating breeding expertise, advanced technologies and regional testing networks, the partnership aims to shorten variety development timelines while responding more effectively to changing climatic conditions and evolving market requirements. InterGrain, widely recognised for its cereal breeding programs, is expanding its portfolio into pulse crops as demand for sustainable crop rotations and plant-based protein continues to grow. The company said faba beans play an increasingly important role in improving farm profitability while delivering agronomic benefits through nitrogen fixation, soil health improvement and diversified cropping systems. The breeding program will leverage InterGrain's national research infrastructure, breeding expertise and advanced rapid-generation technologies to accelerate genetic gain. The company will focus on developing varieties capable of delivering improved productivity while strengthening resilience against major diseases and environmental stresses affecting Australian pulse production. Leadership of the new breeding initiative will be undertaken by Dr Federico Ribalta, who joined InterGrain in 2020 following research at the University of Western Australia's Centre for Plant Genetics and Breeding. His expertise in accelerated breeding technologies for pulse crops is expected to support faster progression from parental crossing through to commercial variety release, enabling growers to access improved genetics in shorter timeframes. The announcement comes during a period of significant infrastructure expansion for InterGrain. The company has recently completed its new breeding facility in Horsham, Victoria, strengthening its research presence across key pulse-growing regions, including the Wimmera and Australia's eastern grain belt where faba bean production is well established. InterGrain is also preparing to relocate to a new corporate headquarters and breeding facility in Forrestdale, Western Australia, in late 2027, a move expected to further increase breeding capacity and operational throughput. Beyond improving farm productivity, the program is expected to support broader industry objectives, including increased pulse production, stronger export competitiveness and growing global demand for plant-based protein ingredients. By combining national breeding capability with modern breeding technologies and collaborative research, the initiative aims to deliver a new generation of faba bean varieties better suited to Australia's diverse production environments while strengthening the long-term sustainability of the country's pulse sector. ]]> https://agrospectrumasia.com/news/160/4309/roches-axelios-1-shows-promise-for-high-speed-agricultural-genomics-says-keygene.html https://agrospectrumasia.com/news/160/4309/roches-axelios-1-shows-promise-for-high-speed-agricultural-genomics-says-keygene.html Mon, 20 Jul 2026 16:56:50 +0530 Plant research company KeyGene has validated the performance of Roche's AXELIOS 1 sequencing platform, concluding that the next-generation technology could significantly accelerate crop genomics by enabling rapid, high-accuracy genome sequencing and single-nucleus transcriptomics at unprecedented scale. The evaluation, conducted in collaboration with Roche, assessed the newly launched AXELIOS 1 platform across agricultural applications ranging from whole-genome resequencing to single-cell gene expression analysis. The findings suggest the system could substantially shorten breeding cycles while improving researchers' ability to identify valuable crop traits. As plant breeding increasingly relies on large genomic datasets, the demand for sequencing technologies that combine speed, accuracy and scalability has intensified. KeyGene believes the new platform addresses many of these bottlenecks. Designed for large-scale crop genomics The AXELIOS 1 platform combines Roche's Sequencing-by-Expansion (SBX) chemistry with high-throughput sequencing capabilities, supporting both duplex sequencing for highly accurate genome analysis and simplex sequencing for transcriptomics. For plant breeders, this could translate into faster screening of breeding populations, improved identification of genetic variation and more efficient validation of gene-edited crops. In its pilot evaluation, KeyGene benchmarked the platform against established reference genomes for tomato and lettuce, achieving near-complete genome alignment while maintaining high sequencing accuracy. According to the company, the duplex workflow generated more than 20 billion sequencing reads during a single run, providing sufficient output to sequence approximately 75 tomato genomes at 30× coverage within four hours. "The SBX-D duplex workflow on AXELIOS 1 produced 30× concordant duplex coverage for approximately 75 tomato genomes in a single four-hour run, enabling rapid, cost-effective resequencing of crops such as tomato and lettuce," said Alexander Wittenberg, Genomics Scientist at KeyGene. Deeper insights into plant biology Beyond genome sequencing, KeyGene also evaluated the platform's performance in single-nucleus RNA sequencing, a rapidly growing technique that enables researchers to examine gene activity within individual plant cells. Using tomato roots exposed to drought-mimicking conditions, researchers generated billions of sequencing reads per sample and identified thousands of individual cell nuclei. The higher sequencing depth enabled scientists to distinguish rare cell populations and refine the identification of specialised root tissues involved in drought response, capabilities that are expected to improve crop resilience research. "Using the SBX-S workflow on AXELIOS 1, we were able to resolve thousands of individual nuclei with unprecedented detail, confirming drought-response mechanisms while enabling deeper and broader plant single-nucleus studies," said Petra van Bergeijk, Single-Cell Transcriptomics Specialist at KeyGene. Implications for agricultural innovation As genomic technologies become central to modern crop improvement, sequencing speed is increasingly viewed as a competitive advantage rather than simply a laboratory metric. Researchers say platforms capable of processing dozens of crop genomes within hours could significantly accelerate breeding programmes, improve trait discovery and support the development of climate-resilient crop varieties. The technology could prove particularly valuable for crops with large and complex genomes, where sequencing costs and turnaround times have traditionally limited the scale of research projects. For KeyGene, the evaluation reinforces the growing role of advanced genomics in agricultural innovation, where faster sequencing is expected to play an increasingly important role in delivering improved crop varieties to farmers. ]]> https://agrospectrumasia.com/news/160/4254/paine-schwartz-deepens-bet-on-agricultural-genetics-with-fresh-investment-in-fruit-breeding-leader-bloom.html https://agrospectrumasia.com/news/160/4254/paine-schwartz-deepens-bet-on-agricultural-genetics-with-fresh-investment-in-fruit-breeding-leader-bloom.html Fri, 10 Jul 2026 16:56:19 +0530 As climate change, resource constraints and consumer demand reshape global horticulture, agricultural genetics is rapidly becoming one of the most valuable assets in the fresh produce business. Reinforcing that investment thesis, Paine Schwartz Partners, the world's largest private equity firm focused exclusively on sustainable food chain investments, has made a structured minority investment in AMFRESH Group and its fruit genetics subsidiary BLOOM FRESH International, further strengthening a partnership that has evolved over nearly a decade. Financial terms of the transaction were not disclosed. The investment comes as plant breeding is increasingly moving from a scientific support function to a strategic competitive advantage within global agriculture. New fruit varieties capable of delivering superior flavour, longer shelf life, higher yields, disease resistance and improved climate resilience are becoming critical differentiators as growers confront rising production costs and increasingly volatile weather conditions. BLOOM has emerged as one of the largest specialised fruit genetics businesses globally following the 2023 merger of Special New Fruit Licensing (SNFL) and International Fruit Genetics (IFG). The combination brought together two leading breeding programmes, creating a single platform with complementary genetic resources spanning multiple fruit categories. Today, the company develops, protects and licenses more than 100 proprietary fruit varieties, including table grapes, cherries, blueberries and raisins, serving a global network of over 3,000 growers across 26 countries. Rather than operating large-scale farming assets, BLOOM generates revenue primarily through intellectual property licensing, allowing it to benefit from recurring royalty income as growers cultivate its patented varieties. The asset-light model has become increasingly attractive to investors seeking exposure to agriculture without the capital intensity typically associated with farming. By monetising proprietary genetics through long-term licensing agreements, companies such as BLOOM are able to generate recurring cash flows while maintaining relatively high operating margins and strong capital efficiency. For Paine Schwartz, the latest investment represents a continuation of a long-term strategy centred on agricultural innovation. The firm has invested in agricultural genetics for more than 20 years, reflecting its view that improved genetics remain among the most influential drivers of productivity, sustainability and value creation across global food systems. The relationship between Paine Schwartz and AMFRESH predates BLOOM itself. In 2019, Paine Schwartz Food Chain Fund V invested in SNFL, supporting the company's commercial expansion, licensing strategy and international growth. Four years later, the fund partially exited its position to global investment firm EQT, facilitating the combination of SNFL and IFG that ultimately established BLOOM as one of the world's leading fruit breeding platforms. The latest investment, made through Paine Schwartz Food Chain Fund VI, expands that relationship while supporting the broader growth strategy of AMFRESH, whose vertically integrated business spans fruit breeding, commercial farming and retail supply chain services. The group's integrated operating model enables it to participate across multiple stages of the fresh produce value chain, from developing new varieties through to supplying retailers worldwide. The transaction also reflects broader investment trends within agriculture, where proprietary genetics are increasingly viewed as intellectual property assets capable of generating long-term competitive advantages. As growers seek varieties that perform under changing climatic conditions while meeting evolving consumer preferences, demand for advanced breeding programmes is expected to continue rising. Unlike traditional agricultural businesses that rely primarily on commodity production, genetics companies derive value from continuous innovation and protected intellectual property. Each successful variety has the potential to generate royalty income over many years, creating predictable revenue streams while encouraging ongoing investment in research and development. For Paine Schwartz, expanding its investment in BLOOM represents more than a financial transaction. It reinforces the firm's long-standing conviction that innovation in plant genetics will play a central role in improving agricultural productivity, strengthening food security and enhancing sustainability across global fresh produce markets. As climate resilience, water efficiency and consumer quality expectations become increasingly important, companies controlling proprietary genetics are likely to occupy an even more strategic position within the global food value chain. ]]> https://agrospectrumasia.com/news/160/4209/resurrect-bio-and-bejo-partner-to-advance-spinach-disease-resistance.html https://agrospectrumasia.com/news/160/4209/resurrect-bio-and-bejo-partner-to-advance-spinach-disease-resistance.html Wed, 01 Jul 2026 22:10:40 +0530 Resurrect Bio, a UK biotechnology company developing disease-resistance traits for crops, today announced a joint development agreement with Bejo, a leading vegetable breeding company, to explore new approaches to disease resistance in spinach. The collaboration will focus on resistance to spinach downy mildew, widely recognised as one of the most destructive diseases affecting spinach production worldwide. The announcement comes at a time when seed companies are seeking faster, more targeted ways to respond to evolving disease pressures, while supporting resilient production systems and reducing reliance on chemical inputs. Grown year-round and consumed around the world in every season, spinach is valued for its nutritional profile as a low-calorie crop rich in vitamins and minerals. As a fast-growing leafy crop produced across multiple growing cycles each year, disease resistance typically breaks down quickly. For growers, disease resistance is an important characteristic of a spinach variety, alongside general resilience and leaf colour. For Bejo, it is a crop worth investing in for the future. Bejo and Resurrect Bio first began working together several years ago, when Resurrect Bio was in the early stages of exploring the potential of its technology. Since then, Resurrect Bio has continued to develop and validate its approach, and the collaboration has now been formalised through a joint development agreement. Under this agreement, Resurrect Bio will apply its targeted trait discovery approach to identify disease-resistance mechanisms that could support the development of more resilient spinach varieties. The project brings together Bejo’s expertise in vegetable breeding with Resurrect Bio’s work in restoring and strengthening crop immunity. Resurrect Bio makes crops resistant to disease by identifying where plant immune systems have been defeated by pathogens. Its targeted trait discovery approach is designed to uncover resistance mechanisms that can restore or improve immune function faster than conventional breeding approaches, creating actionable disease-resistance traits that can be taken forward by seed companies through their own breeding and innovation pipelines. “Spinach is a strong candidate for this kind of work because it is fast-growing, widely consumed and affected by a major global pathogen in downy mildew,” said Dr Cian Duggan, CEO and Co-Founder of Resurrect Bio. “This collaboration with Bejo is an opportunity to apply our disease-resistance trait discovery approach to a crop that matters to growers, breeders and consumers around the world. By combining Resurrect Bio’s understanding of plant-pathogen interactions with Bejo’s deep crop breeding expertise, we can explore new routes to spinach disease resistance that are grounded in the biology of how the pathogen interacts with the crop.” Dr Laurens Kroon, Head of Research at Bejo said: “This collaboration reflects Bejo’s commitment to innovation in vegetable breeding and to developing high-quality spinach varieties with strong and durable disease resistance. Our aim is to guarantee greater stability in spinach production and extend the lifetime of crop varieties and their resistance, helping to ensure a reliable supply of a vegetable consumed worldwide. ” For Resurrect Bio, the agreement marks another important step in its commercial development, following the completion of its Series A in May 2026, which raised a total of $10.3 million. The partnership demonstrates how the company’s platform can be applied across different crops and disease species, supporting its wider ambition to work with leading seed companies to develop stronger and more durable crop disease resistance. ]]> https://agrospectrumasia.com/news/160/4187/becks-ragt-and-phytoform-join-forces-to-develop-ai-engineered-corn-traits-for-next-era-of-crop-productivity.html https://agrospectrumasia.com/news/160/4187/becks-ragt-and-phytoform-join-forces-to-develop-ai-engineered-corn-traits-for-next-era-of-crop-productivity.html Mon, 29 Jun 2026 16:07:22 +0530 In a move that underscores the growing role of artificial intelligence in crop innovation, Beck's and RAGT have entered into a strategic collaboration with agricultural biotechnology company Phytoform to develop a new generation of corn trait products using AI-powered gene regulation technology. The collaboration will initially focus on enhancing whole-plant corn architecture, a key determinant of crop productivity and harvestable yield. The companies aim to develop improved corn varieties for major agricultural markets, including the United States and South America, with future opportunities extending to Europe. At the center of the partnership is Phytoform's proprietary CRE.AI.TIVE™ platform, an artificial intelligence-driven technology designed to identify and optimize precise modifications within a plant's native regulatory DNA. Rather than inserting foreign genetic material, the platform fine-tunes how existing genes are expressed, enabling scientists to influence when, where, and to what extent specific genes are activated. The approach offers a highly targeted method for developing both simple and complex crop traits while aligning with evolving regulatory frameworks in certain markets where gene-edited crops are treated similarly to conventionally bred varieties. The partnership combines Phytoform's expertise in AI-enabled crop development with Beck's extensive market reach and RAGT's global breeding capabilities, proprietary germplasm resources, and deep understanding of corn genetics. Together, the companies are seeking to accelerate the commercialization of differentiated corn products that address the growing need for higher productivity, improved resilience, and greater input efficiency. Corn remains one of the world's most economically important crops and continues to face mounting pressure from climate variability, resource constraints, and rising global food demand. Improving plant architecture has emerged as one of the most promising avenues for increasing harvestable yield and optimizing overall crop performance without significantly increasing production inputs. The collaboration also reflects a broader shift within the agricultural industry toward precision breeding technologies that leverage artificial intelligence and advanced genomics to accelerate crop improvement. By enabling breeders to make highly specific adjustments within elite germplasm, AI-powered gene tuning is increasingly being viewed as a powerful tool for addressing complex agronomic challenges while shortening breeding cycles. Unlike traditional transgenic technologies, which rely on the introduction of foreign genes, Phytoform's platform works entirely within the plant's own genetic framework, potentially offering a pathway to improved crop varieties that are more closely aligned with changing regulatory requirements and consumer preferences. Although the initial focus of the collaboration is on corn, Phytoform's CRE.AI.TIVE™ platform is designed to be crop-agnostic, opening the possibility of applying the technology across multiple crop species and addressing a broad range of agricultural challenges in the years ahead. As artificial intelligence increasingly becomes embedded in agricultural research and development, collaborations such as this one highlight how the convergence of plant science, data science, and advanced breeding technologies is reshaping the future of crop innovation and laying the foundation for more productive and resilient farming systems. ]]> https://agrospectrumasia.com/news/160/4131/latvia-investigates-unauthorized-gmo-tomato-seedlings-as-debate-over-gene-edited-crops-intensifies.html https://agrospectrumasia.com/news/160/4131/latvia-investigates-unauthorized-gmo-tomato-seedlings-as-debate-over-gene-edited-crops-intensifies.html Thu, 18 Jun 2026 15:39:45 +0530 Discovery of genetically modified ‘Norfolk Purple’ tomatoes at a horticulture exhibition sparks regulatory scrutiny, raises concerns for organic farming, and reignites discussions on Europe’s GMO policies Latvian authorities have uncovered the sale of unauthorized genetically modified tomato seedlings, prompting regulatory action and renewed debate over the future of biotechnology in European agriculture. The State Plant Protection Service (SPPS) confirmed that genetically modified Norfolk Purple tomato seedlings—developed by U.S.-based biotechnology company Norfolk Healthy Produce—were being distributed in Latvia despite European Union restrictions on the cultivation and circulation of genetically modified organisms (GMOs). The discovery followed complaints lodged by visitors to the “Garden and Lifestyle 2026” exhibition, where the seedlings were reportedly offered for sale. Subsequent inspections traced the plants to a private collector who had sourced the material from the United States. Known for their distinctive deep-purple flesh and skin, Norfolk Purple tomatoes were engineered to contain elevated levels of anthocyanins, plant compounds associated with antioxidant properties. Unlike conventional purple tomato varieties, the pigmentation extends throughout the fruit due to genetic modifications involving genes derived from snapdragon flowers. While the variety is authorized for commercialization in the United States, it does not meet current regulatory requirements governing GMO cultivation and distribution within the European Union. Authorities said the growers involved have voluntarily destroyed the remaining plant material, although monitoring and investigations remain ongoing. Officials are also urging anyone who purchased the seedlings or seeds through exhibitions or other channels to refrain from planting, distributing or propagating them and to dispose of the material appropriately. The incident has drawn particular attention from Latvia’s organic farming sector. According to the SPPS, the presence of unauthorized GMO material within organic production systems could jeopardize certification status and create compliance challenges for growers operating under strict organic standards. Liena Jaunzeme, Head of the Seed Control Department at the State Plant Protection Service, noted that while environmental risks from the tomatoes appear limited under Latvian growing conditions, the introduction of genetically modified material into organic supply chains remains a significant concern. At the same time, the case has reopened broader discussions about Europe’s regulatory stance on biotechnology. Horticulture specialist Mārīte Gailīte argued that advances in gene-editing technologies could help accelerate the development of crop varieties with improved resistance to diseases, pests and climate-related stresses. While emphasizing the importance of complying with existing laws, she suggested that European regulators may eventually need to reconsider current restrictions to support agricultural innovation. Others remain cautious. Representatives of Latvia’s organic agriculture community warned that widespread adoption of genetically modified crops could increase market concentration and reduce genetic diversity within agricultural systems. They emphasized the importance of maintaining transparent labeling and oversight mechanisms to ensure consumer choice and preserve confidence in organic production. Under Latvia’s Law on the Circulation of Genetically Modified Organisms, individuals and organizations found distributing unauthorized GMOs may face administrative penalties and financial sanctions. Authorities indicated that enforcement measures related to the current case are still under review. The incident is considered highly unusual in Latvia, where unauthorized GMO cases remain rare. However, it highlights the growing challenge regulators face as biotechnology innovations become more accessible globally and increasingly intersect with seed exchange networks, hobbyist growers and international horticultural markets. As Europe continues to debate the future of gene-edited crops and agricultural biotechnology, the Norfolk Purple tomato case underscores the widening gap between rapidly advancing innovation and regulatory frameworks that are struggling to keep pace. ]]> https://agrospectrumasia.com/news/160/4121/uks-35-mn-phenomuk-initiative-targets-next-frontier-of-agricultural-innovation.html https://agrospectrumasia.com/news/160/4121/uks-35-mn-phenomuk-initiative-targets-next-frontier-of-agricultural-innovation.html Wed, 17 Jun 2026 15:07:51 +0530 James Hutton Institute and research partners unite to build a nationwide phenotyping ecosystem aimed at accelerating resilient crop development and safeguarding future food supplies The United Kingdom has unveiled a major £35 million investment in agricultural research infrastructure with the launch of PhenomUK, a six-year national initiative designed to accelerate the development of climate-resilient crops and reinforce long-term food security amid mounting environmental pressures. Backed by the UK Research and Innovation (UKRI) Infrastructure Fund and led by the Biotechnology and Biological Sciences Research Council (BBSRC), the programme brings together leading research institutions across the country, including the James Hutton Institute, to create an integrated phenotyping network capable of evaluating crop performance from laboratory settings through to real-world field conditions. The initiative reflects growing recognition that future agricultural productivity will depend not only on advances in genetics but also on the ability to rapidly understand how plants respond to increasingly complex environmental stresses such as drought, rising temperatures and elevated carbon dioxide levels. Addressing Agriculture’s Critical Data Bottleneck At the heart of PhenomUK is the science of phenomics—the large-scale measurement and analysis of plant traits that reveal how genetic potential interacts with environmental conditions. While advances in genomics have dramatically accelerated the identification of desirable crop characteristics, the ability to evaluate those traits efficiently in real-world conditions has struggled to keep pace. PhenomUK aims to bridge that gap through a coordinated national infrastructure that combines advanced imaging technologies, automation, controlled-environment facilities and field-based research platforms. The system will enable researchers and breeders to monitor crop responses with unprecedented speed and precision, significantly shortening the pathway from scientific discovery to commercial crop deployment. The programme is expected to help overcome one of the most persistent challenges in modern crop breeding: the phenotyping bottleneck that has emerged as genetic analysis capabilities have expanded faster than trait evaluation capacity. James Hutton Institute to Play Central Role The James Hutton Institute’s contribution to the programme will be anchored by its Advanced Plant Growth Centre (APGC), a state-of-the-art facility equipped with molecular analysis laboratories, high-throughput phenotyping systems, vertical farming technologies, post-harvest storage infrastructure and climate-controlled growth environments capable of simulating future agricultural conditions. By integrating these capabilities into the broader national network, researchers will be able to evaluate crops across the entire development cycle—from seed germination to field performance—creating what project leaders describe as a comprehensive “seed-to-field” innovation pipeline. The approach is expected to accelerate the development of new crop varieties capable of maintaining productivity under increasingly volatile climatic conditions while supporting more sustainable farming practices. Building a National Innovation Ecosystem Beyond infrastructure, PhenomUK seeks to establish a unified framework for data sharing, research access and institutional collaboration. By connecting controlled-environment research with field-based testing, the programme aims to reduce duplication of effort, improve research efficiency and strengthen collaboration between academia, government and industry. The initiative arrives at a pivotal moment for UK agriculture, which faces growing challenges linked to climate change, resource constraints and evolving food security concerns. Researchers believe enhanced phenotyping capabilities will enable more precise crop development strategies and improve the speed at which innovations reach farmers. Part of Broader Agricultural Transformation The Advanced Plant Growth Centre itself forms part of a wider £62 million investment under the Tay Cities Region Deal, a partnership involving the UK and Scottish governments alongside regional, academic and private-sector stakeholders. The broader programme seeks to transform crop production systems through precision agriculture and controlled-environment farming technologies that reduce environmental impact while enhancing productivity. As climate uncertainty increasingly reshapes agricultural priorities worldwide, the launch of PhenomUK signals a strategic effort to ensure the UK remains at the forefront of crop science innovation, equipping breeders and researchers with the tools needed to develop the resilient crops that future food systems will demand. ]]> https://agrospectrumasia.com/news/160/4106/syntech-research-objetbio-join-forces-to-bring-novel-microbial-solutions-to-global-markets.html https://agrospectrumasia.com/news/160/4106/syntech-research-objetbio-join-forces-to-bring-novel-microbial-solutions-to-global-markets.html Tue, 16 Jun 2026 15:20:42 +0530 This collaboration highlights the strong commercial potential of ObjetBio’s technology and SynTech’s global capabilities in testing and regulatory support SynTech Research Group, a leading global agricultural CRO, and ObjetBio, a South Korean agricultural biotechnology company, signed a Memorandum of Understanding to advance the global validation, regulatory readiness, and commercialisation of ObjetBio’s proprietary microbial-metabolite technology. This collaboration highlights the strong commercial potential of ObjetBio’s technology and SynTech’s global capabilities in testing, regulatory support, and market entry enablement. The signing took place at SynTech Research’s Spanish headquarters in Picanya, Valencia. Vice-President Hoon Choi, on behalf of ObjetBio, and Dr Marisé Borja, Global Regulatory Affairs Lead at SynTech Research Group, signed the agreement outlining the scope of the partnership. Following the signing, the two teams held a project meeting and toured SynTech’s facilities, including the ecotoxicology and microbiology laboratories, as well as the greenhouses and phenotyping station. The next stop on the tour was the Canary Islands, where SynTech conducts GLP-standard trials, including efficacy testing and post-harvest simulations to support product development and regulatory requirements. ObjetBio also visited SynTech Research Group’s global headquarters in La Chapelle de Guinchay, France, where the company conducts field research and operates its ecotoxicology laboratory, followed by a visit to SynTech’s analytical laboratory in Lyon. “We are looking forward to a long-lasting and productive partnership with ObjetBio, supporting their research and regulatory needs,” said Dr Marisé Borja, Global Regulatory Affairs Lead at SynTech Research Group. “Our collaboration with SynTech Research Group reflects the strong global potential of ObjetBio’s technology platform. We look forward to leveraging SynTech’s capabilities to accelerate validation, regulatory alignment, and commercialisation,” added In-Seong Kim, CEO of ObjetBio. ]]> https://agrospectrumasia.com/news/160/4091/seed-priming-shows-promise-as-next-generation-tool-for-sustainable-pest-control.html https://agrospectrumasia.com/news/160/4091/seed-priming-shows-promise-as-next-generation-tool-for-sustainable-pest-control.html Fri, 12 Jun 2026 15:27:56 +0530 Researchers find methyl jasmonate treatment enhances resistance to major insect pests in both model plants and crop species, while revealing distinct molecular pathways behind the shared protective effect A growing body of research is pointing to seed priming as a powerful strategy for strengthening crop resilience against pests while reducing dependence on chemical pesticides. In a new comparative study, scientists have demonstrated that treating seeds with naturally occurring plant defense compounds can significantly enhance resistance to multiple insect pests in both the model plant Arabidopsis thaliana and the economically important crop Brassica rapa. The findings reinforce the potential of seed priming as a low-cost, scalable approach to sustainable pest management, offering farmers an additional tool to protect crops without compromising growth or productivity. Researchers evaluated the effects of seed treatments using methyl jasmonate (MeJA) and salicylic acid (SA), two plant signaling molecules known to play critical roles in activating defense responses. The study found that both compounds increased resistance against two agriculturally significant pests: the generalist spider mite Tetranychus urticae and the specialist cabbage white caterpillar Pieris brassicae. Importantly, the enhanced protection was achieved without measurable penalties to plant growth, addressing a longstanding challenge in crop protection where stronger defense responses often come at the expense of yield and biomass accumulation. Among the two treatments, methyl jasmonate delivered the most pronounced protective effects, prompting researchers to investigate the biological mechanisms underlying the response. Advanced transcriptomic and metabolomic analyses revealed that while both plant species activated broadly similar defense networks, the specific genes and metabolites involved differed substantially. The results suggest that seed priming triggers a conserved defensive outcome across members of the Brassicaceae family, but the molecular routes used to achieve that protection are highly species-specific. Researchers also found that the effectiveness of methyl jasmonate priming varied depending on the type of pest attacking the plant. In Brassica rapa, mite infestations triggered increased accumulation of salicylic acid-related defenses, while caterpillar feeding activated glucosinolate biosynthesis pathways—an important class of natural compounds known for their role in deterring herbivorous insects. These findings highlight the complex interplay between crop species, pest identity, and defense signaling pathways, suggesting that future seed priming strategies may need to be tailored to specific crop-pest combinations to maximize effectiveness. The study provides fresh evidence that seed priming can deliver consistent agronomic benefits across different plant species while relying on flexible, context-dependent biological mechanisms. Such adaptability could prove valuable as agriculture faces increasing pressure to reduce chemical pesticide use while maintaining productivity in the face of evolving pest threats. As regulators, researchers, and food producers seek more sustainable crop protection solutions, seed priming is attracting growing attention as a practical intervention that can be integrated into existing farming systems with minimal disruption. By enhancing plants’ natural immune responses before they encounter stress, the technology offers a preventive approach that could complement integrated pest management programs and strengthen resilience across a range of crops. The researchers conclude that while the protective effects of methyl jasmonate priming appear broadly transferable across Brassicaceae species, optimizing outcomes will require a deeper understanding of crop-specific biology and pest interactions. The findings open the door to more targeted seed-treatment strategies capable of delivering durable pest resistance while supporting the transition toward more sustainable agricultural production systems. ]]> https://agrospectrumasia.com/news/160/4090/solynta-makes-history-with-first-registered-hybrid-true-potato-seed-variety.html https://agrospectrumasia.com/news/160/4090/solynta-makes-history-with-first-registered-hybrid-true-potato-seed-variety.html Fri, 12 Jun 2026 15:15:49 +0530 Dutch approval of SOLHY019 marks a breakthrough for hybrid potato breeding, paving the way for more resilient, sustainable and globally scalable potato production Solynta has achieved a landmark milestone in agricultural innovation with the official registration of SOLHY019, the first diploid hybrid potato variety grown from hybrid true potato seed (HTPS) to be listed on the Dutch National Variety Register. The registration, formally approved and published by the Dutch Board of Plant Varieties, represents a significant validation of hybrid potato breeding technology and underscores Solynta’s leadership in developing next-generation potato varieties. The approval marks a pivotal moment not only for the Netherlands’ potato industry but also for the global potato sector, demonstrating that hybrid potato breeding has progressed from a scientific concept to a commercially viable reality. Industry observers view the development as a major step toward modernizing one of the world’s most important food crops through advanced breeding technologies that offer greater efficiency, improved disease resistance, and enhanced supply chain flexibility. “This registration represents a defining moment for Solynta and for the broader potato industry,” said Peter Poortinga, Chief Executive Officer of Solynta. “Hybrid potato breeding has long been viewed as a transformative opportunity for agriculture, and this approval demonstrates that the technology is now ready to deliver commercial value. While we are proud to be the first company to achieve official registration of a diploid hybrid true potato seed variety, we also recognize that this milestone is the result of years of dedicated research and development. It strengthens our commitment to continue delivering improved potato varieties for growers around the world.” The Dutch National Variety Register is widely regarded as one of the most rigorous and respected variety registration systems in global agriculture. Inclusion on the register confirms that a variety meets established standards for quality, stability, distinctiveness, and performance. For Solynta, the registration of SOLHY019 provides an important regulatory and commercial foundation for expanding market access and accelerating international adoption of hybrid true potato seed technology. “Official registration is a critical requirement for market access in many regions,” said Ard Rijlaarsdam, Market Access and Regulatory Affairs Lead at Solynta. “Recognition by the Dutch Board of Plant Varieties provides both credibility and a strong regulatory framework for introducing these innovations to growers worldwide. It confirms that our hybrid varieties meet internationally recognized standards and supports future registrations across global markets.” Unlike conventional potato production, which relies on bulky seed tubers, Solynta’s hybrid breeding platform enables potatoes to be grown from true botanical seeds. This approach offers several advantages, including easier transportation and storage, reduced risk of disease transmission, improved uniformity, and faster breeding cycles. The technology also allows breeders to combine desirable traits more efficiently, accelerating the development of varieties tailored to evolving agronomic and market needs. The registration of SOLHY019 is expected to strengthen confidence in hybrid potato breeding as a viable alternative to traditional propagation methods. By enabling seed-based distribution, the technology has the potential to simplify global supply chains while improving access to high-quality planting material, particularly in regions where transporting and storing seed tubers presents logistical challenges. Solynta’s breeding platform is designed to deliver varieties that combine strong agronomic performance with improved disease resistance and production consistency. The company believes hybrid true potato seed technology can play an increasingly important role in addressing challenges facing potato growers, including climate variability, rising input costs, and pressure to reduce crop losses caused by pests and diseases. The approval of SOLHY019 also opens the door for future registrations of potato varieties developed through hybrid breeding. As the company expands its pipeline, Solynta aims to introduce varieties with enhanced resistance to major diseases such as late blight, one of the most economically damaging threats to potato production worldwide. “With this registration, we are not simply introducing a new potato variety,” Poortinga added. “We are establishing a new category of potato breeding that has the potential to transform how potatoes are developed, distributed, and cultivated globally. This is an important step toward a future where growers have access to more resilient, productive, and sustainable varieties that can meet the demands of a changing agricultural landscape.” As global agriculture increasingly seeks solutions that improve productivity while reducing environmental impact, Solynta’s milestone highlights the growing role of advanced breeding technologies in shaping the future of crop production. The successful registration of SOLHY019 positions hybrid true potato seed as a promising new tool for strengthening food security and enhancing the sustainability of one of the world’s most widely consumed staple crops. ]]> https://agrospectrumasia.com/news/160/4089/aggene-expands-canola-innovation-pipeline-through-strategic-biotech-partnership.html https://agrospectrumasia.com/news/160/4089/aggene-expands-canola-innovation-pipeline-through-strategic-biotech-partnership.html Fri, 12 Jun 2026 15:00:46 +0530 Licensing deal with genXtraits and Mendel supports development of high-performance traits for challenging growing conditions In a move reflecting growing industry efforts to strengthen crop resilience amid increasing climate volatility, biotechnology companies genXtraits Inc., Mendel Biotechnology Inc., and Canadian crop innovation startup AgGene Inc. have announced a strategic collaboration to develop a new generation of stress-resilient canola traits designed to improve yield stability under challenging growing conditions. Under the agreement, AgGene has secured royalty-bearing commercial licenses to intellectual property portfolios developed by genXtraits and Mendel, providing access to advanced genetic technologies focused on enhancing crop performance, stress tolerance, and productivity. The collaboration will initially concentrate on developing canola varieties with improved resilience to heat and cold stress—two environmental factors that are increasingly impacting oilseed production across major growing regions. The partnership brings together three complementary areas of expertise. AgGene contributes its crop-development platform and gene-editing capabilities tailored specifically to canola breeding. Mendel provides access to decades of functional genomics research and a proprietary database identifying key regulatory genes associated with traits such as abiotic stress tolerance, disease resistance, nutrient-use efficiency, and crop quality. Meanwhile, genXtraits contributes its proprietary STRM platform, which enables precise modification of gene control regions to elevate the production of beneficial proteins within plants. The companies believe this integrated approach could accelerate the development of dominant genetic traits capable of delivering more consistent performance under increasingly unpredictable weather conditions. “Canola has become one of Canada’s most important agricultural success stories, but farmers are facing growing challenges from heat, drought, and temperature-related stress,” said Dr. Logan Skori, Chief Executive Officer of AgGene. “Producers are making significant investments in seed and are looking for solutions that help crops perform more reliably. By combining validated gene targets with precision trait-development technologies, we aim to create practical innovations that complement existing breeding programs and support long-term productivity.” Climate resilience has emerged as a major focus area for global crop breeding programs as growers contend with more frequent weather extremes, shifting rainfall patterns, and increasing pressure to maintain yields while using resources more efficiently. Canola, one of the world’s leading oilseed crops, plays a critical role in global food, feed, and biofuel supply chains, making improvements in stress tolerance increasingly valuable to both producers and seed developers. According to the partners, the collaboration seeks to move beyond conventional breeding approaches by leveraging regulatory gene networks that control key physiological responses within plants. Rather than introducing entirely new genes, the strategy focuses on fine-tuning the activity of existing genes through targeted modifications in their control regions, allowing plants to express beneficial traits at optimal levels. “Each partner brings highly complementary strengths to this initiative,” said Dr. Oliver J. Ratcliffe, Chief Executive Officer of Mendel Biotechnology and Co-Founder of genXtraits. “Mendel has spent decades identifying regulator genes that influence important agronomic traits, while genXtraits has developed algorithms that help determine where precise genetic edits can be made to enhance the expression of those genes. AgGene adds deep expertise in canola trait development and commercialization. Together, we believe this creates a powerful framework for delivering transformative improvements in crop resilience.” The companies expect the collaboration to generate novel canola trait candidates capable of maintaining performance under environmental stress conditions that increasingly threaten crop yields and farm profitability. Beyond heat and cold tolerance, the underlying technology platform may also create future opportunities to address nutrient-use efficiency, disease resistance, and overall crop productivity. As climate adaptation becomes a central priority across global agriculture, the partnership highlights a broader industry trend toward combining advanced genomics, artificial intelligence-driven trait discovery, and precision gene-editing technologies to accelerate the development of crops capable of thriving in a more variable production environment. The first phase of the collaboration will focus on trait development and evaluation, with the longer-term objective of integrating successful stress-resilience traits into commercial canola breeding programs serving farmers across Canada and other key oilseed-producing regions. ]]> https://agrospectrumasia.com/news/160/4083/sanatech-wins-canadian-approval-for-gene-edited-tomato-rich-in-gaba.html https://agrospectrumasia.com/news/160/4083/sanatech-wins-canadian-approval-for-gene-edited-tomato-rich-in-gaba.html Thu, 11 Jun 2026 17:15:49 +0530 The regulatory clearance marks a key milestone in the company's push to expand its functional food portfolio beyond Japan In a significant development for the future of gene-edited foods, Canadian regulators have cleared a high-GABA tomato developed by Japan's Sanatech Life Science Co. Ltd., determining that the product can be marketed as a conventional food rather than being subject to the country's more stringent novel food regulations. Following an assessment by Health Canada's Novel Foods Section, authorities concluded that the company's Sicilian Rouge High GABA tomato satisfies existing plant-breeding guidelines and does not meet the regulatory definition of a novel food. The decision effectively places the gene-edited variety in the same safety category as tomatoes developed through traditional breeding methods. As part of Canada's food transparency framework, the product will be added to the federal government's public registry of non-novel foods approved for commercial use. The ruling represents another important signal of how regulators are increasingly distinguishing between gene editing and conventional genetic modification technologies. Unlike traditional genetically modified organisms (GMOs), which often involve the introduction of foreign DNA, gene-editing techniques such as CRISPR enable scientists to make precise changes within a plant's existing genome. Sanatech's tomato was developed using CRISPR-Cas9 technology and first entered the Japanese market in 2021. The variety was designed to contain significantly elevated levels of gamma-aminobutyric acid (GABA), a naturally occurring amino acid associated with several potential health benefits, including support for healthy blood pressure regulation. According to the company, the gene-edited tomato contains approximately four to five times more GABA than conventional tomato varieties, positioning it within a growing category of crops engineered to deliver enhanced nutritional value. The Canadian approval marks a strategic milestone for Sanatech as it seeks to expand beyond its home market and establish a presence in North America, where regulatory approaches to gene-edited crops continue to evolve. Industry observers view the decision as further evidence of a broader shift in agricultural biotechnology policy. Regulators in several countries have begun adopting product-based assessments that focus on the characteristics and safety profile of the final crop rather than the breeding technology used to develop it. For developers of gene-edited foods, such distinctions can substantially reduce commercialization timelines and regulatory complexity, accelerating the introduction of new varieties with improved nutritional, agronomic or sustainability traits. Sanatech said the clearance strengthens its international growth strategy and will support efforts to expand production and distribution of the High GABA tomato across North American markets. The decision also highlights the growing commercial momentum behind gene-edited foods, a sector increasingly viewed as one of agriculture's most promising frontiers for enhancing crop quality, consumer health and food-system resilience without introducing foreign genetic material. As countries continue to refine their regulatory frameworks, Canada's endorsement of the High GABA tomato may serve as a bellwether for how future gene-edited crops are assessed and brought to market worldwide. ]]> https://agrospectrumasia.com/news/160/4082/lost-gene-from-maizes-wild-ancestor-could-rewrite-future-of-animal-feed.html https://agrospectrumasia.com/news/160/4082/lost-gene-from-maizes-wild-ancestor-could-rewrite-future-of-animal-feed.html Thu, 11 Jun 2026 17:10:43 +0530 Researchers in China have identified a rare genetic variant that boosts corn protein levels by nearly 50% without sacrificing yields A team of Chinese scientists has identified a rare gene from teosinte, the wild ancestor of modern maize, that significantly boosts protein content in corn without compromising grain yields, offering a potentially transformative tool for crop breeders seeking to improve the nutritional value of one of the world's most important staple crops. The breakthrough, published in the journal Nature , was achieved by researchers from the Center for Excellence in Molecular Plant Sciences of the Chinese Academy of Sciences, Shanghai Normal University, and Sichuan Agricultural University. The discovery addresses a long-standing challenge in maize breeding. Although maize has undergone nearly 9,000 years of domestication and genetic improvement, breeding efforts historically focused on yield, adaptability and agronomic performance rather than nutritional quality. As a result, many naturally occurring genetic variants associated with higher protein accumulation gradually disappeared from cultivated maize populations. Today, modern maize varieties generally contain relatively low protein levels, contributing to the livestock industry's dependence on imported protein sources such as soybean meal. The newly identified gene, known as Teosinte High Protein 3 (THP3-T), appears to reverse part of that historical trade-off. Researchers found that THP3-T encodes glutamate-oxaloacetate transaminase 1 (GOT1), a critical enzyme involved in nitrogen metabolism. The team discovered that unique natural variations within the gene increase both its expression and biological activity, enabling maize plants to convert nitrogen into protein more efficiently. According to the researchers, these beneficial variants became progressively less common during maize domestication and modern breeding. While relatively widespread in wild teosinte populations, the superior form of THP3-T is now present in only a small fraction of modern maize germplasm. The study further revealed that the gene's impact becomes even more pronounced when paired with another previously identified high-protein gene, THP9-T, which regulates nitrogen utilization through a different biochemical pathway. To test the practical value of the discovery, scientists introduced both favorable gene variants into Zhengdan 958, one of China's most widely cultivated commercial maize hybrids. The results were striking. Seed protein content increased from approximately 8.5 per cent to between 12 per cent and 13 per cent, while whole-plant protein content rose from roughly 7 per cent to more than 9 per cent. Importantly, these nutritional gains were achieved without reducing grain yield—an outcome long regarded as one of the most difficult objectives in crop improvement. The findings shed new light on how centuries of domestication inadvertently reduced the nutritional quality of maize while selecting for other desirable traits. More importantly, they demonstrate how beneficial genetic diversity preserved in wild crop relatives can be reintroduced into modern breeding programs to address contemporary food and feed challenges. Researchers say the work provides a valuable new genetic resource for developing maize varieties with enhanced protein content, particularly at a time when rising global demand for livestock feed is placing increasing pressure on agricultural supply chains. The discovery also highlights a broader trend in crop science: the growing effort to unlock useful traits hidden within the wild ancestors of modern crops. By recovering genetic variations that were lost during domestication, scientists hope to improve nutritional quality, resource-use efficiency and resilience without sacrificing productivity. With maize remaining a cornerstone of global food, feed and industrial supply chains, the identification of THP3-T represents a significant advance in efforts to produce more nutritious crops while maintaining the yields needed to support a growing global population. The study marks the latest milestone in China's expanding agricultural genomics research program and builds upon earlier work that first identified THP9-T, another key gene linked to elevated protein accumulation in maize. Together, the two discoveries offer breeders a powerful new toolkit for developing the next generation of high-protein corn varieties. ]]> https://agrospectrumasia.com/news/160/4037/crispr-walks-through-door-gm-couldnt-open.html https://agrospectrumasia.com/news/160/4037/crispr-walks-through-door-gm-couldnt-open.html Fri, 05 Jun 2026 12:16:44 +0530 India has released the world’s first genome-edited rice varieties and China is signing safety certificates at speed. However, the politics that buried Bt brinjal and stalled Golden Rice has not gone away — it is simply waiting at the next gate. On 4 May 2025, in an auditorium named after the architect of India’s Green Revolution, Union Agriculture Minister Shivraj Singh Chouhan unveiled two unremarkable-looking bags of rice seed. The varieties — DRR Dhan 100, branded “Kamala,” and Pusa DST Rice 1 — looked like any other improved line a public-sector institute might release. They were not. Both had been built using CRISPR-Cas9, and with their release India became the first country in the world to commercialise genome-edited rice developed with its own institutions. For an industry that spent two decades watching transgenic crops collide with courts, street protests and moratoria, the moment was loaded. The same Indian state that imposed an indefinite moratorium on Bt brinjal in 2010, and whose Supreme Court has kept GM mustard in regulatory limbo, had just walked a gene-edited staple onto the market in a single afternoon — no Genetic Engineering Appraisal Committee (GEAC) clearance, no multi-year biosafety dossier, no environmental release hearing. The question for anyone running a seed company, writing farm policy or backing an agri-tech venture in Asia is no longer whether gene editing is coming. It is whether the region has genuinely leapfrogged the West’s GM gridlock — or whether the opposition that defeated transgenics is simply re-forming around CRISPR, one allegation and one writ at a time. What the rules actually permit The pivot rests on a regulatory distinction that is easy to state and hard to police: did you add foreign DNA, or not? India’s framework, set out in a March 2022 Office Memorandum from the Ministry of Environment, Forest and Climate Change, exempts two categories of genome-edited plants — known as SDN-1 and SDN-2 — from the biosafety rules that govern genetically modified organisms, provided the final plant carries no exogenous introduced DNA. SDN, or site-directed nuclease, refers to the cutting tools (CRISPR-Cas9 being the best known) that make a precise break at a chosen spot in the genome. An SDN-1 edit lets the plant’s own repair machinery knock a gene out; SDN-2 uses a short template to make a small, defined tweak. Crucially, neither inserts a gene from another organism. SDN-3 — which does insert foreign genes — remains fully regulated as GM under GEAC. The practical effect is large. Because most plant-breeding applications envisaged today produce SDN-1 or SDN-2 outcomes, the bulk of the gene-editing pipeline falls outside India’s GMO regime. Oversight shifts to Institutional Biosafety Committees, which certify the absence of foreign DNA, and the resulting varieties are released through the ordinary Seeds Act channel rather than the Environment Protection Act. Kamala, for instance, was created by editing the CKX2 (Gn1a) gene in the popular Samba Mahsuri background to lift grain number per panicle; Pusa DST Rice 1 edited a drought-and-salt-tolerance gene in the MTU1010 background. No bacterial gene, no viral promoter — and, in the government’s reading, no GMO. China has built a parallel but more centralised pathway. Its Ministry of Agriculture and Rural Affairs (MARA) issued safety-evaluation guidelines for gene-edited plants in January 2022 and follow-up review rules in 2023, sorting edits into four risk tiers and reserving the lightest touch for changes that introduce no foreign sequence. Where India deregulates a whole class, China keeps a government-led, case-by-case review — but one designed to move quickly. It approved its first CRISPR crop, a high-oleic soybean from Shandong Shunfeng Biotechnology, in 2023, and on 25 December 2024 issued a tranche of certificates that included five new gene-edited events — two soybeans and one each of wheat, maize and rice — alongside a batch of transgenic approvals. Recipients included feed group Dabeinong and China National Seed Group, now part of Syngenta Group. The 2024 rice event was China’s first gene-edited rice cleared for cultivation. The contrast with transgenic GM matters commercially, not just scientifically. A Bt cotton or GM mustard event in India can take a decade and tens of crores to shepherd through field trials, environmental assessment and a politically exposed GEAC vote. An SDN-1 rice line can follow the same release calendar as a conventionally bred variety. For breeders, that compresses the distance between a benchtop idea and a farmer’s field from a generation to a few seasons — and changes the economics of who can afford to play. The pipeline behind the headlines The two rice varieties are the visible tip of a deep regional pipeline. India’s public laboratories have been editing toward drought- and salinity-tolerant rice and maize, blast-resistant and low-phytate rice, high-oleic groundnut, beta-carotene-enriched banana, disease-resistant pepper and stress-tolerant tomato. Edited oilseeds — including mustard, the crop whose transgenic version remains stuck in the courts — sit in the queue, offering proponents a politically tantalising prospect: delivering the yield and oil-content gains of GM mustard through a route that sidesteps the GEAC fight entirely. China’s published approvals already span soybean, maize, wheat and rice, with traits running from oil quality to yield and disease resistance — explicitly framed by Beijing as a food-security and import-substitution play. The country planted an estimated three million hectares of biotech maize and soybean in 2025, more than four times the 2024 area, signalling how fast a cautious system can scale once the politics are settled internally. Elsewhere in the region the map is uneven but moving in one direction. Japan was first to market: Tokyo’s Sanatech Seed has sold a CRISPR-edited high-GABA tomato, “Sicilian Rouge,” directly to consumers since September 2021 under guidelines that treat foreign-DNA-free edits as outside GMO rules, requiring only notification. Japan has also cleared gene-edited tiger puffer and red sea bream. Australia excluded SDN-1 organisms from its GMO definition back in 2019. The Philippines built a science-based “plant breeding innovation” process in 2022 and has since ruled a reduced-browning banana and the GABA tomato to be non-GMO. New Zealand, long the regional hold-out, is now drafting a Gene Technology Bill that edges toward a risk-tiered model. Across Southeast Asia, Vietnam, Indonesia and the Philippines already grow biotech maize, and Bangladesh remains the regional exception that proves a different rule — its publicly bred Bt brinjal is one of the few transgenic food crops in commercial cultivation anywhere in the region. For seed-industry strategists, the takeaway is that Asia is assembling a patchwork of fast lanes for edited crops at the very moment the technology is maturing. The breeder’s case, made by the public scientists who built Kamala and echoed across MARA and Japan’s agriculture ministry, is straightforward: a CRISPR knockout that deletes a few base pairs is indistinguishable in its end product from a spontaneous or radiation-induced mutation — the kind of mutation breeding that has produced hundreds of crop varieties eaten safely for decades. Regulating the process rather than the product, they argue, taxes precision and rewards the bluntness of older techniques. The opposition re-forms That argument has not gone unanswered — and the speed of India’s release has, if anything, sharpened the resistance rather than dissolved it. The Coalition for a GM-Free India, the network that helped block Bt brinjal and contest GM mustard, condemned the rice release within a day, calling the government’s conduct devious and irresponsible and accusing it of acting under corporate pressure. Its core legal claim is that gene editing falls squarely within India’s statutory definition of genetic engineering, and that the 2022 exemption therefore deregulated GM crops by administrative sleight of hand rather than law. By that reading, Kamala and Pusa DST Rice 1 are GMOs released without the confined field trials and high-level clearance the rules require. The scientific objection runs alongside the legal one. Coalition convenor Kavitha Kuruganti and allied scientists point to published work — including studies on CRISPR in rice — arguing that SDN-1 editing is not as precise as marketers claim, and can produce unintended insertions, deletions and rearrangements both at the target site and elsewhere in the genome, with unknown consequences for the proteins a plant produces and for the people who eat it. The precaution they urge is not a permanent ban but mandatory, transparent biosafety testing and labelling before any edited staple reaches a plate. The dispute turned concrete and bitter in October 2025, when the Coalition wrote to Minister Chouhan alleging that ICAR’s own multi-location trial data did not support its yield claims. Kamala, the group said, underperformed at eight of nineteen trial sites in 2023 and showed a flowering-time advantage of about three days rather than the headline twenty. ICAR rejected the allegations as baseless and motivated, and its communications office has defended gene editing as a straightforward extension of mutation breeding, noting that more than ninety percent of Indian cotton farmers adopted Bt cotton within a few years — its evidence that farmers embrace a technology that works. Two further strands give the opposition durability beyond the laboratory. The first is corporate control. Even where edits are public-sector, the underlying CRISPR tools and many enabling patents are held by a handful of firms and universities, mostly Western; farmer movements warn that a deregulated fast lane could entrench seed-industry dominance and erode the right to save and exchange seed — the same anxiety that animated the GM fights, now attached to a technology that is harder to detect. The second is detectability itself: an SDN-1 edit that leaves no foreign DNA can be impossible to distinguish from natural variation, which means labelling and traceability regimes built for transgenics may simply not work. In Japan, that gap has spawned a consumer-led “OK Seed” project that voluntarily labels produce as not gene-edited — a market signal that the absence of mandatory labels does not equal the presence of public trust. The trust question is not confined to democracies with active farmer movements. In China, where civil-society pushback is muted, the pressure point has shifted to transparency: USDA analysts noted that from 2025 MARA stopped publishing its newly approved biosafety certificates, a move that obscures exactly which edited events are entering cultivation and which firms hold them. For a system selling gene editing partly on the promise of rigorous, science-led oversight, that opacity is its own reputational risk — and precisely the kind of governance gap advocacy networks elsewhere seize on. And the courts remain a live venue. The Philippines offers the cautionary case study: in April 2024 the Court of Appeals, acting on a writ of kalikasan sought by Greenpeace Southeast Asia and the farmer-scientist network MASIPAG, ordered a halt to the commercial propagation of Golden Rice and Bt eggplant, citing the constitutional right to a healthful ecology and the lack of full scientific certainty on safety. Greenpeace called the ruling a monumental win; biosafety proponents called it a step backward for a country with real vitamin-A deficiency. The crops at issue were transgenic, not edited — but the judgment demonstrated that a determined coalition can stop an approved GM food crop in its tracks years after regulators signed off, on precautionary and procedural grounds that would transfer cleanly to a CRISPR product. The West as context, not template For Asian adopters weighing all this, Western developments matter less as a model than as a verdict on market access. The headline shift is in Brussels. After the European Court of Justice ruled in 2018 that gene-edited crops must be regulated as GMOs — effectively freezing them out of the EU — the bloc spent years deadlocked. In December 2025, Council and Parliament negotiators struck a provisional deal on a New Genomic Techniques (NGT) regulation that creates a two-tier system: NGT1 plants, those judged equivalent to what conventional breeding could achieve, would be exempt from GMO rules with only a verification step and seed-level identification; NGT2 plants would stay under the full GMO regime. Member states endorsed the compromise in December and the relevant parliamentary committee in January 2026, with a final plenary vote expected around mid-2026 and the rules likely to apply from 2028. The European Parliament’s earlier push for a blanket ban on patenting NGT plants — a sticking point for years — was softened after the Commission’s own analysis warned it would gut research investment. England has already moved faster, with its Precision Breeding regulations entering force in November 2025. The direction of travel in the West therefore now broadly converges with Asia’s: separate the foreign-DNA question from the breeding-method question, and treat the lightest edits as conventional. But two cautions are buried in the detail. First, the EU framework is slower and more conditional than India’s blanket exemption — labelling of seed, exclusions, and a monitoring programme all survive — which means “Europe is opening up” should not be read as “Europe will wave through Asian edited grain.” Second, the patent fight that nearly sank the EU deal is the same corporate-control anxiety driving Asian opposition; it has not been resolved so much as deferred. For export-oriented producers, that ambiguity carries real money. India ships basmati and non-basmati rice into price-sensitive and label-sensitive markets; Vietnam and Thailand are among the world’s largest rice exporters; Japan guards a premium domestic market with strong consumer scepticism. If an importing market — or a single influential retailer — decides an edited variety is a GMO requiring authorisation and labelling, the absence of a detectable DNA signature becomes a compliance nightmare rather than a marketing advantage. The very feature that makes SDN-1 edits regulatorily light at home makes them legally ambiguous at the border. Has the science outpaced the politics? The honest answer is that Asia has won the first round and not the fight. On the proponents’ side, the structural advantages are real and probably durable. The regulatory architecture is built and functioning in India, China, Japan, Australia and the Philippines. The pipeline is broad and aimed at exactly the traits the region needs — drought and salinity tolerance, water and nitrogen efficiency, lower methane from shorter-duration rice. The economic logic is compelling: editing collapses development timelines and lets cash-strapped public institutes, not just multinationals, bring improved staples to market. And the political framing — precision, food security, climate resilience, no foreign genes — is far more defensible than the one transgenics carried. On the opposition’s side, none of the foundations have shifted. The legal challenge that gene editing is genetic engineering under existing statutes is unresolved and could yet reach India’s higher courts. The detectability problem makes labelling and traceability genuinely difficult, which keeps the trust deficit alive. The corporate-control critique attaches as easily to CRISPR as to Bt. And the Philippine precedent shows that an approved crop can be stopped by a precautionary judiciary long after the regulators have moved on. The October 2025 data-integrity row over Kamala is a preview of the next phase of the argument: not “is the technology dangerous” but “can you trust the institutions that cleared it.” For investors, the asymmetry is the opportunity. A transgenic trait that needs a decade of trials and a GEAC vote is a venture few funds can underwrite; an SDN-1 trait that releases on a conventional-breeding timeline turns gene editing into something closer to a software-paced business, where the bottleneck is talent and germplasm access rather than regulatory survival. That is why the names appearing on China’s approvals — Dabeinong, Syngenta’s seed arm — and the licensing posture of trait developers eyeing both the EU’s NGT1 lane and Asian fast tracks are worth watching more closely than any single variety. The risk that prices the deals is not agronomic but political: a successful writ, a labelling mandate from a major export market, or a data-integrity scandal that hardens public opinion can strand an edited portfolio as surely as a failed field trial. For the boardroom and the policy desk, the strategic read is therefore double-edged. The window to develop and commercialise edited staples in Asia is open wider and earlier than anywhere in the West, and first movers in seed, traits and licensing have a genuine head start. But the same forces that turned GM into a twenty-year trench war — litigation, labelling, corporate-control politics and the slow erosion of public trust when a release looks rushed — are intact and now pointed at CRISPR. The science walked through the door GM could not open. Whether it stays in the room depends on whether the breeders, regulators and seed firms now inside choose transparency over speed. The politics is not behind them. It is waiting at the next gate. Editing versus engineering — why the distinction drives the policy Transgenic GM and gene editing are routinely lumped together, but the regulatory split across Asia turns entirely on how they differ. Transgenic GM (the old debate)- A gene from another organism is inserted into the crop’s genome — the Bacillus thuringiensis (Bt) bacterial gene in Bt cotton and Bt brinjal that makes the plant toxic to certain pests, or the genes added to Golden Rice to produce beta-carotene. The crop now contains DNA it could never have acquired by breeding. This foreign DNA is permanent, inheritable and detectable, which is why GM crops are regulated for biosafety and environmental release, and why their critics invoke cross-species transfer. Gene editing (the new frontier)- Tools such as CRISPR-Cas9 make a precise cut at a chosen point in the plant’s own genome. Regulators classify the outcomes: SDN-1 — the cut is made and the plant’s repair machinery knocks the target gene out or alters it slightly. No template, no foreign DNA. (Kamala’s grain-number edit and Japan’s GABA tomato are SDN-1.) SDN-2 — a short DNA template guides a small, defined change, like correcting a few letters of text. Still no foreign gene retained in the final plant. SDN-3 — a full gene from another organism is inserted. This is functionally transgenesis and stays regulated as GM in India, China and the EU alike. Why it matters for the rulebook. Because SDN-1 and SDN-2 leave no foreign DNA, the end product can be indistinguishable from a plant produced by spontaneous or radiation-induced mutation — techniques used in conventional breeding for decades without GMO regulation. India, China, Japan, Australia and the Philippines have therefore drawn their regulatory line at the presence of foreign DNA rather than the use of a laboratory technique, and the EU’s 2025 NGT deal moves in the same direction with its NGT1/NGT2 split. The catch. That same absence of foreign DNA means an SDN-1 edit cannot be reliably detected or traced after the fact. For proponents, this proves the edit is “natural-equivalent.” For critics, it means labelling, monitoring and consumer choice break down — and that unintended off-target changes could pass unexamined. The science of the distinction is settled; its policy consequences are not. -- Ankit Kankar, Chief Operating Officer- AgroSpectrum Asia & India ]]> https://agrospectrumasia.com/news/160/4006/gene-editing-moves-from-policy-to-practice-in-u-k.html https://agrospectrumasia.com/news/160/4006/gene-editing-moves-from-policy-to-practice-in-u-k.html Tue, 02 Jun 2026 16:05:57 +0530 Rothamsted Research launches inaugural field trial under the Precision Breeding Act as investment in crop biotechnology signals growing momentum for next-generation agricultural innovation The United Kingdom has taken a significant step in its post-Brexit agricultural innovation strategy with the planting of the country’s first gene-edited crop under the newly implemented precision breeding regulatory framework. The milestone marks the practical commencement of a policy shift designed to accelerate biotechnology-led agricultural research while distinguishing precision-bred organisms from conventional genetically modified crops. The field trial, led by Rothamsted Research, represents the first crop to be authorised through a Precision Bred Organism Release Notice under the Genetic Technology (Precision Breeding) Act 2023 and the accompanying Precision Breeding Regulations 2025. Researchers have planted Camelina sativa, an emerging oilseed crop, to evaluate whether gene-editing techniques can enhance seed size, oil concentration and overall crop productivity. The project employs CRISPR-based gene-editing technology and is being positioned primarily as a proof-of-concept for the United Kingdom’s new regulatory pathway rather than an immediate route to commercial product development. Scientists believe the trial will help demonstrate how precision breeding can contribute to the creation of more productive and resource-efficient crop varieties. “This programme illustrates the potential of gene editing to deliver tangible benefits for British agriculture,” said Dr Mollie Langdon, who is leading the research initiative at Rothamsted Research. The Genetic Technology (Precision Breeding) Act represents a fundamental departure from the regulatory framework inherited from the European Union. Under the new legislation, organisms containing genetic changes that could have arisen naturally or through traditional breeding methods are classified separately from genetically modified organisms (GMOs). This distinction is intended to simplify research and development processes for precision-bred crops while maintaining regulatory oversight. The newly introduced release notice mechanism significantly streamlines the approval process for outdoor field trials, reducing many of the administrative requirements that historically governed GMO testing. Industry observers view the development as a pivotal moment for the UK’s ambition to establish itself as a global hub for agricultural biotechnology and precision breeding innovation. In a parallel development that further highlights the growing momentum behind advanced agricultural technologies, Mosaic has announced a £2.5 million investment (approximately $3.2 million) in SugaRox, a biotechnology spinout jointly established by Rothamsted Research and the University of Oxford. The investment will support the development of precision crop biostimulants designed to enhance plant performance and improve crop resilience. The funding aligns with Mosaic’s broader strategy to expand its Mosaic Biosciences platform as global crop nutrition companies increasingly diversify into biological and efficiency-enhancing technologies alongside conventional fertiliser products. The twin developments underscore a broader transformation underway within the agricultural sector, where advances in gene editing, biological inputs and precision technologies are increasingly converging to address productivity, sustainability and climate resilience challenges. By formally differentiating precision breeding from conventional genetic modification, the United Kingdom is positioning itself among a small group of major agricultural economies seeking to create a more enabling environment for biotechnology innovation. The regulatory clarity is expected to open new opportunities for research institutions, start-ups and agribusinesses exploring gene-editing applications, while potentially accelerating the development of next-generation crop varieties and biological solutions. As global agriculture faces mounting pressure to improve productivity while reducing environmental impact, the UK’s evolving precision breeding ecosystem may serve as an important test case for how regulatory innovation can influence the pace of scientific advancement and commercial adoption in the years ahead. ]]> https://agrospectrumasia.com/news/160/3990/hudson-river-gains-access-to-pairwises-fulcrum-plant-gene-editing-platform.html https://agrospectrumasia.com/news/160/3990/hudson-river-gains-access-to-pairwises-fulcrum-plant-gene-editing-platform.html Fri, 29 May 2026 17:09:37 +0530 Fulcrum platform includes proprietary editing tools, enzymes, and trait libraries designed for precise crop genetic modification Netherlands-based plant biotechnology company Hudson River Biotechnology (HRB) has entered into a licensing agreement with US gene-editing specialist Pairwise, gaining access to the Fulcrum plant gene editing platform in a move aimed at strengthening its crop improvement and breeding capabilities across multiple agricultural segments. Under the agreement, Hudson River will incorporate Fulcrum tools into its genome editing services for customers working in vegetables, soft fruits, and other crop species. The partnership is expected to broaden the company’s technical offering by complementing its existing BioMaas workflow with an expanded suite of precision editing technologies. Hudson River Biotechnology specialises in genome editing, plant regeneration, and trait development, with a focus on enabling transgene-free crop improvement directly within elite breeding lines. The company said the addition of Fulcrum would allow it to support a wider range of breeding applications and provide greater flexibility to customers seeking advanced gene-editing solutions. According to Hudson River, demand for genome editing technologies is rising steadily among plant breeders and crop developers as the agriculture sector increasingly prioritises precision breeding, improved productivity, and accelerated trait development. The company noted that integrating Fulcrum into its platform would enhance its ability to deliver targeted crop innovation through collaborative and adaptable partnership models. Pairwise described the agreement as part of its broader strategy to expand the reach of its Fulcrum platform across more crop categories and breeding programmes globally. The company indicated that the collaboration with Hudson River would help extend the application of its gene-editing technologies into specialty crops where Hudson River already maintains active customer relationships. Fulcrum is Pairwise’s integrated plant gene editing platform comprising proprietary editing tools, enzymes, and trait libraries designed to enable precise genetic modifications across a broad range of crop species. The platform has been developed and validated through Pairwise’s own breeding programmes and is licensed to agricultural and biotechnology partners worldwide. The partnership reflects the growing momentum behind precision breeding technologies within global agriculture, particularly as seed companies and crop developers seek faster and more targeted approaches to improving crop resilience, quality, and yield performance. ]]> https://agrospectrumasia.com/news/160/3931/nestle-and-first-milk-back-next-generation-of-regenerative-dairy-farmers.html https://agrospectrumasia.com/news/160/3931/nestle-and-first-milk-back-next-generation-of-regenerative-dairy-farmers.html Fri, 22 May 2026 13:19:29 +0530 The group toured the facility and took part in discussions on stress management, leadership and resilience Nestlé and First Milk have launched a forward-thinking initiative to support the next generation of dairy farmers. The format has been developed with 8point9 Training and Education and responds to the lack of opportunity for capable farmers to learn in a way that fits how they think and work. It focuses on practical learning, reflecting the realities of running a modern dairy business. Attending the launch event, Mike Warmington, Regeneration Lead at Nestlé UK & Ireland, said: “We want to make sure we are helping to build long-term resilience and sustainability in our supply chain. Of course, that means farming regeneratively, but it also means the long-term resilience of the farmers and their businesses. Young Dairy Leaders is a great step forward to help make sure the next generation of farmers keep doing what they’re doing today for many years to come.” Young Dairy Leaders was launched at Dovenby Hall in Cumbria, home of international motorsports business M-Sport UK, so attendees could experience a successful business outside farming and explore how different sectors deal with pressure, uncertainty and decision making. The group toured the facility and took part in discussions on stress management, leadership and resilience. Guest speakers included Cumbrian dairy farmer Robert Craig, who shared his experience of building a progressive and sustainable dairy business, alongside adventurer, author and charity founder Alex Staniforth, who spoke about overcoming extreme physical and mental challenges. Young Dairy Leaders will run a series of events in 2026 and is for First Milk members looking for relevant learning to support both business performance and personal growth, with a strong sense of community sitting at its heart. Lee Truelove, Head of Regenerative Farming at First Milk, said: “We are not building a training course. We are building the community, the confidence and the competence the next generation of regenerative farmers needs to thrive." Nestlé and First Milk believe Young Dairy Leaders come at a critical time for the sector, as dairy businesses adapt to economic pressures and the transition towards more regenerative systems. Their ambition is to create a lasting network of skilled and confident farmers who can support one another and help shape a sustainable future for the industry. ]]> https://agrospectrumasia.com/news/160/3921/cibus-pushes-toward-2027-rice-launch-as-gene-editing-momentum-builds-globally.html https://agrospectrumasia.com/news/160/3921/cibus-pushes-toward-2027-rice-launch-as-gene-editing-momentum-builds-globally.html Mon, 18 May 2026 13:01:10 +0530 Agri-biotech firm advances herbicide-tolerant rice programme across Latin America while regulatory tailwinds strengthen for next-generation genomic technologies. Agricultural technology company Cibus Inc. is accelerating commercial and regulatory momentum across its gene-edited crop portfolio, with its flagship herbicide-tolerant rice programme moving closer to a targeted 2027 launch in Latin America amid a rapidly evolving global policy environment for precision breeding technologies. Reporting first-quarter 2026 results, the Nasdaq-listed company said it continues to deepen partnerships with global seed companies while expanding the commercial pathway for its proprietary Rice herbicide tolerance (HT) platform. The company also highlighted growing international regulatory acceptance of New Genomic Techniques (NGTs), particularly in Europe, where policymakers continue advancing legislation governing gene-edited crops. “We are pleased to report continued momentum across our priority programs during the first quarter of 2026,” said Peter Beetham, Interim Chief Executive Officer of Cibus. “Our Rice herbicide tolerance program is advancing on multiple fronts, including meaningful progress toward commercialization with our Latin American seed partners, including initially Interoc, as we continue to eye our targeted 2027 initial launch.” Cibus’ HT Rice programme has emerged as one of the company’s most commercially advanced assets. The platform currently supports seven active customer relationships representing an estimated 5–7 million peak addressable acres and more than $200 million in potential annual royalty opportunities at maturity. While the company continues targeting an initial Latin American launch in 2027, it has revised its U.S. commercialisation timeline from 2028 to 2029 following delays in herbicide registration processes being handled by its partner Albaugh. The company has intensified engagement across major rice-growing regions. In January 2026, Cibus signed a non-binding Letter of Intent with Latin American agribusiness company Interoc to establish a framework for commercialising co-developed herbicide-tolerant rice traits across key regional markets. That relationship advanced further in March, when Interoc secured an additional import permit enabling future transfer of material bearing HT traits. By May, Cibus had completed the transfer of gene-edited traits into Interoc’s rice seeds, paving the way for regional testing and potential market deployment. Beyond Latin America, the company has also initiated discussions with major Indian rice-sector participants through strategic collaborations involving RTDC and AgVayā, signalling a broader international expansion strategy targeting some of the world’s largest rice-producing markets. The company’s broader narrative is increasingly tied to global food security and agricultural resilience. Beetham noted that disruptions in global fertiliser supply chains and tightening nitrogen availability continue to create mounting pressure on farmers, particularly in nitrogen-intensive crops such as rice, wheat, and canola. Against this backdrop, Cibus believes its precision breeding technologies offer scalable pathways to improve resilience, productivity, and input efficiency. While Rice HT and Sustainable Ingredients remain near-term priorities, the company says significant longer-term value also exists across its broader opportunity pipeline, including canola disease resistance, nutrient-use efficiency traits, soybean editing platforms, wheat trait development, and forage crop innovations. Cibus’ Sustainable Ingredients programme is also gaining traction. Following its first customer payment in late 2025, the company has expanded R&D activities with increased funding commitments and expects additional scale-up orders for biofragrance products during the second half of 2026. Management believes the programme could become an increasingly important commercial pillar as demand grows for biologically derived specialty ingredients. At the same time, regulatory developments continue to strengthen the commercial outlook for gene editing globally. In April 2026, the Council of the European Union formally adopted its first-reading position on proposed NGT regulations, advancing legislation that would create a clearer pathway for gene-edited crops across European markets. The proposal now moves toward a European Parliament plenary vote expected later this year. The regulatory shift follows a series of global milestones achieved in 2025, including Ecuador’s decision to classify Cibus’ HT1 and HT3 Rice traits as equivalent to conventionally bred crops, as well as continued progress in the United Kingdom’s Precision Bred Organisms framework, where Cibus participated as a test case under the country’s new review process. Beyond commercial expansion, Cibus has spent the past year aggressively restructuring operations to improve capital efficiency. Chief Financial Officer Carlo Broos said the company remains on track to reduce annual net cash usage to approximately $30 million or less during 2026, supported by cost-cutting measures and operational consolidation initiatives. Research and development expenses declined to $8.7 million during the first quarter, compared with $11.8 million a year earlier, while SG&A expenses fell sharply to $5.1 million from $9.9 million. The company attributed the reductions to operational streamlining and the absence of significant litigation expenses recorded during the prior-year quarter. Cibus also strengthened its balance sheet through two equity offerings completed earlier this year, raising approximately $37 million in gross proceeds. The capital is expected to support working capital requirements and continued advancement of the company’s priority commercial programmes. As of March 31, 2026, Cibus held $30.3 million in cash and cash equivalents, which management believes is sufficient to fund operations into late first quarter 2027 without additional financing. Financially, the company reported a first-quarter net loss of $21.2 million, a substantial improvement from the $49.4 million loss recorded during the same period last year. Net loss per share improved to $0.33 from $1.34, driven partly by the absence of a prior-year goodwill impairment charge and broader expense reductions. Meanwhile, the company continues expanding its scientific and commercial capabilities. In April, Cibus appointed agribusiness veteran Thomas Urban to its Board of Directors, adding more than three decades of experience spanning Pioneer Hi-Bred International, CellFor, and Goldman Sachs. As regulatory acceptance of gene editing accelerates and global agricultural systems face mounting pressure from climate volatility, fertiliser disruptions, and food-security concerns, Cibus is positioning itself at the intersection of precision breeding, crop resilience, and next-generation agricultural innovation. ]]> https://agrospectrumasia.com/news/160/3843/usda-approved-allergen-reduced-peanuts-enter-field-trials-in-georgia.html https://agrospectrumasia.com/news/160/3843/usda-approved-allergen-reduced-peanuts-enter-field-trials-in-georgia.html Thu, 07 May 2026 11:23:25 +0530 First outdoor cultivation marks shift from controlled lab research to commercial-scale agricultural testing AgriNetica and Nurtured Nuts have announced a major scientific and agricultural milestone with the successful planting of USDA-approved allergen-less peanuts at a secured agricultural site in Georgia, marking the first transition of the technology from controlled laboratory environments to full-scale field cultivation in the United States. The development represents a pivotal step in the companies’ joint mission to fundamentally re-engineer one of the world’s most widely consumed and allergenic crops. Designed to significantly reduce allergenic proteins while preserving nutritional integrity, taste, and functional versatility, the gene-edited peanut is positioned as a breakthrough innovation for the estimated 6.1 million Americans living with peanut allergies. The initiative is powered by proprietary second-generation CRISPR-based gene-editing technology developed by AgriNetica, the U.S. division of Israeli biotech firm BetterSeeds. Through precise genomic modifications, researchers have engineered a peanut variant that retains its core agronomic and dietary characteristics while substantially lowering allergenic risk factors, potentially redefining safety standards in nut-based food production. The choice of Georgia as the cultivation site reflects both strategic and agronomic considerations, given the state’s leadership in U.S. peanut production, its established agricultural infrastructure, and its specialised expertise in large-scale peanut farming. The current field deployment marks the first outdoor, commercial-scale cultivation of allergen-reduced peanuts under the Nurtured Nuts programme. Company representatives have indicated that the upcoming harvest will play a critical role in advancing clinical validation, regulatory evaluation, and commercial readiness processes. The project is expected to progress through structured pathways involving collaboration with regulatory and data partners, including the USDA, FDA, and industry platforms supporting food system transparency and market integration. Nurtured Nuts has further signalled plans to expand its broader ecosystem through strategic partnerships aimed at accelerating product development, regulatory alignment, and eventual market introduction. The company has positioned the initiative as part of a wider effort to combine biotechnology, agriculture, and consumer food innovation into a unified framework for next-generation food safety solutions. In essence, the planting marks not merely an agricultural trial, but the tentative emergence of a new category of engineered foods—where genetic precision is deployed not for yield alone, but for redefining the boundaries of dietary safety itself. ]]> https://agrospectrumasia.com/news/160/3822/cibus-advances-gene-edited-rice-program-with-interoc-moves-toward-latin-america-commercial-rollout.html https://agrospectrumasia.com/news/160/3822/cibus-advances-gene-edited-rice-program-with-interoc-moves-toward-latin-america-commercial-rollout.html Tue, 05 May 2026 18:24:19 +0530 Gene-edited herbicide tolerance traits in rice transferred to Interoc as Cibus moves closer to commercial launch in Latin America, leveraging its Rapid Trait Development System to accelerate seed innovation and yield-focused solutions Cibus, Inc. (Nasdaq: CBUS), an agricultural technology company focused on plant trait development and licensing, has announced the transfer of gene-edited herbicide tolerance traits in rice to its partner Interoc, marking a key step toward commercialization in Latin America. The materials will enable Interoc S.A. to begin testing and production of rice seed varieties incorporating Cibus’ gene-edited traits, ahead of a planned regional launch under its CIBUS enhanced seed portfolio. “This collaboration with Cibus continues to deliver significant value,” said Fernando De La Puente, Corporate Vice President at Interoc. “Rice is a critical crop for the Latin American economy, and we are committed to providing growers with advanced traits that optimize their productivity.” Cibus said the milestone supports its strategy of delivering predictable, time-bound trait development through its Rapid Trait Development System, which is designed to accelerate the introduction of crop innovations aimed at improving yield and resilience. “Achieving this milestone on schedule reinforces our core objective: the predictable development of desired traits in rice and other crops,” said Peter Beetham, PhD, Co-founder and Interim Chief Executive Officer of Cibus. “We are addressing the global need for accelerated trait innovation and helping equip farmers with solutions that support food security.” The company added that growing regulatory alignment on gene-edited crops globally is expected to support broader commercialization efforts across its pipeline. Additional traits are expected to progress toward partner delivery over the coming year. “Our partnership with Interoc has been characterized by high-level collaboration and productivity,” said Martin Poveda, Senior Director Rice & Business Affairs at Cibus. “Together, we are creating solutions tailored to key markets, and we look forward to the commercial rollout of gene-edited products in the coming years.” ]]> https://agrospectrumasia.com/news/160/3639/humanitys-backup-plan-arctic-seed-deposits-safeguard-global-food-and-knowledge.html https://agrospectrumasia.com/news/160/3639/humanitys-backup-plan-arctic-seed-deposits-safeguard-global-food-and-knowledge.html Tue, 17 Mar 2026 11:59:33 +0530 Dr. Kent Nnadozie, Secretary, FAO International Treaty on Plant Genetic Resources for Food and Agriculture, calls the Svalbard and Arctic World Archive deposits a historic step for food security and international cooperation The International Treaty on Plant Genetic Resources for Food and Agriculture marked a historic week with new deposits at the Svalbard Global Seed Vault and the Arctic World Archive. For the first time, olive genetic resources were secured in Svalbard, with 5,000 seeds from 59 accessions deposited by the International Olive Council. The nearby Arctic World Archive now houses digital records, legal texts, and knowledge that underpin global stewardship of these resources. Storting representative Geir Pollestad has nominated the Seed Vault and key partners—including NordGen, Crop Trust, CGIAR, and the FAO—for the Nobel Peace Prize, highlighting the link between food security and global peace. The milestones underscore the strategic importance of crop genetic diversity as global infrastructure, while emphasizing the need for long-term funding, equitable access, and cooperation in the face of climate challenges. This exclusive interview with Agrospectrum, explores the recent milestones achieved by the International Treaty on Plant Genetic Resources for Food and Agriculture, including the dual deposits at the Svalbard Global Seed Vault and the Arctic World Archive. It examines the strategic importance of crop genetic diversity as global infrastructure, the evolving role of commodity organizations in biodiversity governance, and the challenges of financing, cooperation, and digital sequence information in securing the world’s food systems. The discussion also looks ahead to the Treaty’s vision for 2035, focusing on strengthening political, operational, and financial frameworks to ensure resilience, equitable access, and the active use of plant genetic resources in a rapidly changing climate. The Dual Arctic Milestone The International Treaty has now secured both genetic material in the Svalbard Global Seed Vault and institutional knowledge in the Arctic World Archive. How do you see this dual protection strategy reshaping the global architecture of food security and multilateral cooperation? This dual milestone reflects a fuller understanding of what resilience requires. Food security does not rest only on conserving seeds. It also depends on preserving the legal frameworks, institutional memory and shared knowledge that allow countries to cooperate in conserving and using those seeds over time. By securing crop diversity in the Svalbard Global Seed Vault and preserving key records in the Arctic World Archive, we are protecting both the biological foundation of agriculture and the governance architecture that sustains it. One safeguards the material basis of adaptation. The other safeguards the continuity of cooperation. In an era of accelerating climate risk and geopolitical uncertainty, that matters greatly. It signals that resilience is not only about storing resources, but also about protecting the systems of trust, law and collaboration that make those resources available for the common good. A useful way to put it is this: seeds preserve options for the future, and institutions preserve our ability to act on them together. Crop Diversity as Strategic Infrastructure As climate volatility intensifies, should crop genetic diversity now be considered critical global infrastructure, on par with energy grids or digital networks? What policy shifts are needed to elevate it to that level? Yes, crop genetic diversity should increasingly be treated as strategic infrastructure. It is less visible than roads, power grids or digital cables, but it is just as foundational. Without genetic diversity, there is no durable pathway to crop adaptation, no sustained breeding progress, and no real resilience in food systems. Every time a breeder develops a variety that tolerates heat, drought, salinity or emerging pests, that progress depends on access to diverse genetic material. In that sense, crop diversity is not a peripheral environmental concern. It is core productive infrastructure for humanity. It is truly an existential issue. To elevate it to that level, several policy shifts are needed. First, conservation systems such as genebanks, community seed systems and in situ conservation efforts must be funded as long-term public infrastructure, not as short-cycle projects. Second, plant genetic resources need to be integrated more explicitly into national climate adaptation, food security and development planning. Third, international exchange systems must remain functional, predictable and trusted, because no country is self-sufficient in the diversity it will need. We would never leave an electricity grid to chance. We should not treat the biological infrastructure of food security any less seriously. From Conservation to Utilisation Safeguarding seeds is essential, but ensuring their active use is equally critical. How is the Treaty strengthening the link between conservation, farmer access and innovation pipelines, particularly in climate-vulnerable regions? That is exactly the right framing. Conservation is indispensable, but conservation alone is not enough. Diversity must be conserved in ways that keep it accessible, relevant and usable. The International Plant Treaty helps strengthen that link in several ways. Through the Multilateral System, it facilitates access to plant genetic resources for research, breeding and training. That is essential for moving diversity from storage into practical use. Through the Benefit-sharing Fund, it supports projects that connect farmers, local institutions, researchers and national systems in the conservation and sustainable use of crop diversity, often in regions facing high climatic stress. In climate-vulnerable regions, the key is to close the loop between conservation, selection, breeding and farmer use. We need systems in which local varieties and farmer knowledge inform research agendas, and where improved materials and information flow back to farming communities in forms they can use. Innovation should not be seen as something separate from farmers. Farmers are part of the innovation system. The real measure of conservation is not what sits on a shelf or in cold rooms, but what remains alive in farmers’ fields, gets used in breeding programmes and supports our food systems. The Olive Breakthrough The historic olive accession deposit in collaboration with the International Olive Council signals deeper institutional alignment. What does this milestone reveal about the evolving role of commodity bodies within global biodiversity governance? This is a very significant development. It shows that commodity bodies are not only sectoral actors concerned with production and markets. They can also be important stewards of genetic diversity and strategic partners in the broader governance of agrobiodiversity. The olive deposit demonstrates that commodity-specific institutions and multilateral biodiversity frameworks do not operate in separate universes. On the contrary, they can reinforce one another. Such bodies often bring technical expertise, sectoral legitimacy and close connections to producer communities. When those strengths are aligned with wider international frameworks such as the Treaty, the result can be more coherent and more effective conservation action. It also reflects an important evolution in thinking. Crop diversity is no longer seen only as the domain of genebanks or environmental institutions. It is increasingly recognized as a strategic asset for entire value chains and production systems. That creates new opportunities for collaboration. What this milestone shows is that biodiversity governance becomes stronger when specialized institutions see genetic diversity not as a side issue, but as part of their core mandate. Financing the Future of Diversity The Benefit-sharing Fund has supported smallholder-driven conservation in the Sahel, Guatemala and beyond. Is the current global financing model sufficient to sustain long-term crop diversity protection, or is a new funding paradigm required? The honest answer is that while current financing remains important, but it is not yet sufficient. There is no question that the Benefit-sharing Fund has demonstrated real value. It has supported practical, locally grounded work that strengthens conservation, supports farmers and reinforces resilience in vulnerable settings. But the scale of the challenge is growing faster than the scale of available finance. Crop diversity underpins global food security, climate adaptation and agricultural innovation. Yet financing for its conservation and sustainable use remains fragmented, often short-term and still below what is required. A stronger and more durable funding paradigm is needed, one that treats plant genetic resources as a global strategic asset worthy of sustained public and collective investment. That means broadening the funding base, increasing predictability, and making a stronger case to climate, biodiversity and development finance communities that crop diversity is not a niche concern. It is an enabling condition for long-term resilience. Geopolitics and Seed Sovereignty In an era of rising geopolitical fragmentation, how resilient is the Treaty’s Multilateral System? Are nations strengthening cooperation around plant genetic resources, or becoming more protective? Both dynamics are present, and that is precisely why the Multilateral System matters. There is clearly a stronger language of sovereignty in many policy arenas, including around genetic resources and data. Countries want assurance that their resources will not simply flow outward without fairness, recognition or benefit-sharing. That concern is understandable. At the same time, the reality is that no country can secure its food future in isolation. Agriculture everywhere depends on crops and traits that have travelled across borders over centuries. Climate change is making that interdependence even more pronounced. So while there may be greater caution and greater political sensitivity, there is also a growing recognition that cooperation is not optional. The resilience of the Multilateral System lies in the fact that it offers a rules-based way to manage this interdependence. It does not erase sovereignty. It operationalizes cooperation within an agreed framework. The challenge now is to ensure that the system remains credible, balanced and sufficiently responsive to contemporary expectations of fairness. Seed sovereignty and international cooperation should not be framed as opposites. In practice, durable sovereignty increasingly depends on effective cooperation. Digital Sequence Information (DSI) The debate around digital genetic data is intensifying globally. How is the Treaty positioning itself to ensure equitable access and benefit-sharing in a world where crop genomes can be transmitted digitally across borders? This is one of the most important governance questions now facing the international system. Scientific and technological change has made it possible to derive value from genetic resources through digital information flows that do not always involve physical transfer of material in the traditional sense. That creates clear opportunities for research and innovation, but it also raises legitimate concerns about equity, benefit-sharing and the future integrity of existing multilateral arrangements. The Treaty has to engage this issue with seriousness and pragmatism. The objective should not be to impede science. It should be to ensure that scientific progress remains anchored in fairness, trust and international cooperation. If the governance system does not adapt, there is a risk that confidence in multilateral exchange arrangements will erode. Positioning the Treaty well in this area means contributing constructively to international discussions, clarifying how digital developments affect access and benefit-sharing, and exploring approaches that preserve both openness in research and equity in outcomes. The central principle must remain that the benefits arising from the use of plant genetic resources, whether physical or digital, should support the collective system that makes innovation possible in the first place. The question is not whether science will move into the digital domain. It already has. The question is whether governance will evolve quickly enough to keep cooperation fair and credible. The Next Decade: A Strategic Vision Looking ahead to 2035, what structural reforms or innovations must occur within the International Treaty framework to ensure it remains fit for purpose in a hotter, more uncertain world? By 2035, the Treaty will need to be stronger in three respects: politically, operationally and financially. Politically, it will need to maintain broad confidence that multilateral cooperation on plant genetic resources remains fair, relevant and responsive to present-day realities, including new technologies and heightened concern about equity. Operationally, it will need stronger links between conservation, use, farmer engagement, data systems and innovation pathways, so that the system is not only preserving diversity but actively mobilizing it for resilience. Financially, it will need a more robust and predictable support base for benefit-sharing, capacity development and long-term conservation. There is also a deeper strategic shift required. Crop diversity can no longer be treated as a specialized issue sitting at the margins of agriculture policy. It has to be recognized as central to climate adaptation, food security, nutrition, resilience and peace. The Treaty is well placed to help make that case, but it must continue to evolve institutionally and programmatically to match the scale of the challenge. The Treaty must remain not only a guardian of inherited diversity, but a platform for future resilience. That is the task for the coming decade. --- Suchetana Choudhury (suchetana.choudhuri@agrospectrumindia.com) ]]> https://agrospectrumasia.com/news/160/3580/chiquita-advances-banana-innovation-with-completion-of-yelloway-banana-pan-genome.html https://agrospectrumasia.com/news/160/3580/chiquita-advances-banana-innovation-with-completion-of-yelloway-banana-pan-genome.html Mon, 16 Feb 2026 13:42:30 +0530 Accelerates the development of banana varieties that are more resilient to disease, better suited to a changing climate, and aligned with consumer expectations Chiquita has announced a major advancement in banana innovation with the completion of the Yelloway banana pan-genome, a foundational scientific breakthrough designed to accelerate the development of disease-resistant and climate-resilient banana varieties. The banana pan-genome is a groundbreaking achievement that provides researchers with a high-resolution map of the banana's genomic landscape, enabling deeper exploration and faster development of improved, disease-resistant varieties. This milestone highlights the importance of collaboration across the supply chain to advance global banana research and breeding. Advancing Banana Genetics Through Yelloway Developed through Yelloway B.V., an innovation joint venture between Chiquita and KeyGene, ("Yelloway") the banana pan-genome provides a comprehensive view of banana genetic diversity. By capturing the full range of naturally occurring variation, the pan-genome enables more precise research, supports biodiversity preservation, and strengthens long-term breeding efforts aimed at protecting the future of bananas. Yelloway was created to unlock banana genetic diversity and advance classical breeding, supported by advanced genomic technologies. The pan-genome was developed by Yelloway using Oxford Nanopore sequencing technology, in collaboration with partners across the banana value chain, including Innocent Drinks, which provided match funding through its Farmer Innovation Fund. Responding to Global Disease and Climate Challenges The completion of the pan-genome comes at a critical moment for the global banana industry. As Fusarium wilt Tropical Race 4 (TR4) continues to spread and Black Sigatoka drives more than $100 million in annual protective costs, the ability to identify and deploy resilient genetic traits faster and more accurately has become increasingly essential. Covering the genetic diversity of Musa acuminata—the species underpinning widely recognized banana varieties such as Gros Michel and Cavendish—the pan-genome allows Yelloway to move beyond broad genetic exploration toward targeted breeding decisions. This approach accelerates the development of banana varieties that are more resilient to disease, better suited to a changing climate, and aligned with consumer expectations. Global Dialogue at Fruit Logistica in Berlin Chiquita shared insights from this work during Fruit Logistica in Berlin, where Stedman participated in the event's Sustainability Panel, highlighting the role of science-based innovation and cross-industry collaboration in building a more resilient banana supply chain. Supporting Industry-Wide Collaboration As part of its commitment to shared progress, Yelloway will provide academic researchers with access to the banana pan-genome through a dedicated web portal, supporting collaboration and continued advancement in banana breeding and research. ]]> https://agrospectrumasia.com/news/160/3583/futuragene-secures-world-first-regulatory-approval-for-gene-edited-eucalyptus.html https://agrospectrumasia.com/news/160/3583/futuragene-secures-world-first-regulatory-approval-for-gene-edited-eucalyptus.html Fri, 13 Feb 2026 14:34:25 +0530 Brazil's National Technical Biosafety Commission (CTNBio) classifies FuturaGene’s gene-edited eucalyptus as a conventional organism. FuturaGene, the biotechnology subsidiary of the world’s largest pulp supplier, Suzano, has received formal regulatory approval from Brazil's National Biosafety Technical Commission (CTNBio) for its new variety of gene-edited eucalyptus. CTNBio has confirmed the variety meets the criteria for exemption under Normative Resolution No. 16 (RN 16). This development was produced using CRISPR-Cas9, a New Breeding Technique (NBT), which allows for precise, targeted edits within the eucalyptus genome. Because the process introduces no genetic material from other species, the resulting modification is functionally comparable to genetic variations that may occur naturally or through conventional breeding methods. The specific edit in the new variety is designed to improve wood quality. By optimizing the wood’s lignin composition, FuturaGene’s new development supports more sustainable industrial processing, by enabling the reduction of chemical inputs and energy consumption during pulping. Following this regulatory approval, which also sets out an applicable biosafety and governance framework, FuturaGene will proceed with controlled field trials across different growing conditions in Brazil. Trials will be conducted in line with the highest safety and governance standards, in strict compliance with all regulatory requirements. FuturaGene is a pioneer in tree biotechnology in Brazil and globally, having now obtained 11 approvals from CTNBio for genetically modified (GM) eucalyptus varieties, with traits including yield enhancement, herbicide tolerance, and insect resistance, and this first approval for gene-edited eucalyptus. All the products aim to support sustainably meeting growing global demand for bio-based products, at the same time as adapting commercial tree farming to the impacts of climate change and resource scarcity. This new regulatory milestone reinforces FuturaGene’s track record of responsible innovation, aligned with Brazil’s biosafety policy framework. Gene editing now complements the company’s existing portfolio of approved genetically modified eucalyptus varieties, providing a diverse technological toolkit with methodologies that can suit specific challenges. ]]> https://agrospectrumasia.com/news/160/3543/gist-and-fao-to-cooperate-on-climate-change-food-security-and-agri-food-sectors.html https://agrospectrumasia.com/news/160/3543/gist-and-fao-to-cooperate-on-climate-change-food-security-and-agri-food-sectors.html Wed, 21 Jan 2026 11:39:42 +0530 Strategic partnership to leverage GIST's advanced education and research capabilities in environmental, life sciences, and artificial intelligence (AI) fields to support FAO's global food and agriculture agenda Korea's Gwangju Institute of Science and Technology (GIST) announced on January 20 that it has signed a Letter of Intent (LOI) with the Food and Agriculture Organization of the United Nations (FAO) to initiate full-scale cooperation in the areas of food security and sustainable agri-food systems, which are facing increasing uncertainty due to climate change. This collaboration is being pursued as part of a strategic partnership to leverage GIST's advanced education and research capabilities in environmental, life sciences, and artificial intelligence (AI) fields to support FAO's global food and agriculture agenda through science and technology, strengthen the domestic agri-food ecosystem, and make practical contributions to the international community. The signing ceremony was attended by GIST President Lim Gicheol, Vice President for External Affairs Jung Yonghwa, Dean of the Graduate School of Technology Management Kim Sangho, and other key GIST officials, as well as Tang Shengyao, Head of the FAO Korea Partnership Office, Deputy Head Lee Nara, and other representatives from both organizations. GIST and FAO agreed to jointly generate innovative research outcomes by linking Korea's advanced technologies with policy needs in the food and agriculture sectors, and to develop these outcomes into collaborative models that can be applied to international policies and on-site practices. With this agreement, GIST plans to establish a collaborative network connecting domestic universities, national research institutes, farms, and companies in the Honam region, and to begin developing Korean-style agri-food solutions. In particular, GIST will use the Honam region as a field demonstration hub (testbed), conduct pilot projects there, and then expand the results to the international community (FAO member countries). The institute also aims to strengthen its AI-based climate and agri-food technology capabilities to contribute to FAO's global goals. This LOI signing is the result of ongoing exchanges and discussions between the two organizations. In April last year, GIST invited Tang Shengyao, Head of the FAO Korea Partnership Office, to give a special lecture on "AI-Based Resilient Food and Agriculture Systems." In September, GIST hosted a session on "Digital Technology and Sustainable Livestock Management Innovation" at the FAO-organized Interregional Digital Agriculture Solution Forum (IDASF), confirming the potential for further collaboration. Following the LOI signing ceremony, a "GIST-FAO Joint Workshop" was held to discuss concrete cooperation measures for applying advanced technologies to climate change, food security, and sustainable food systems. The workshop consisted of special lectures, research and technology sessions, and panel discussions. During the special lecture session, strategies and technological applications for structural transformation in the climate and agri-food sectors were presented. ▲ Professor Kim Kibae of GIST's Graduate School of AI Policy and Strategy proposed a "grand architecture" for GIST-FAO cooperation in response to climate change. ▲ Ahn Changwon, Digital Convergence Program Manager at the Institute for Information & Communications Technology Planning & Evaluation, presented ways to utilize AI-based digital twins to address uncertainties in climate change and the food and agriculture sectors. In the research and technology session, GIST researchers presented a range of achievements combining AI with environmental and agri-food technologies. ▲ Professor Kim Eunseok (Department of Environmental and Energy Engineering) introduced the principles of plant-microbe interactions. ▲ Professor Kim Hyungrok (Department of Environmental and Energy Engineering) proposed ways to address water resource uncertainty caused by climate change through water resource distribution detection technology using satellite image analysis. GIST President Lim Gicheol stated, "This marks the starting point for international cooperation in sharing our advanced technological capabilities with the global community in an era of unprecedented climate change, aging, and population decline," adding, "GIST will fulfill its responsible role as a national science and technology institution in addressing the agri-food crisis faced by the international community." Tang Shengyao, Head of the FAO Korea Partnership Office, emphasized, "The combination of GIST's scientific and technological capabilities with FAO's global agenda will make significant contributions to global food production, nutrition supply, environmental improvement, and quality of life." ]]> https://agrospectrumasia.com/news/160/3513/bayer-to-launch-innovative-strawberry-variety.html https://agrospectrumasia.com/news/160/3513/bayer-to-launch-innovative-strawberry-variety.html Fri, 09 Jan 2026 11:17:55 +0530 Addresses the pressing production challenges for growers, combining high yield potential, disease resistance, and labor efficiency Bayer announced the launch of Baya Solara, the first commercial strawberry variety from Bayer’s De Ruiter brand. The launch is a vital part of the company’s strategic expansion into the strawberry market and follows Bayer's acquisition of the strawberry assets from UK-based NIAB in 2023. The introduction of the new variety reinforces Bayer’s commitment to providing innovative solutions to protected culture growers and sets a new standard in soft fruit cultivation. Strawberries are among the fastest-growing fruit crops, with year-round demand exceeding supply. “Our new variety Baya Solara is an exciting June-bearing cultivar and delivers impressive productivity and strong resistance to diseases like Phytophthora cactorum without compromising fruit quality. With this launch, we are targeting Northern Europe's rapidly growing protected cropping sector and offer growers new opportunities,” said Swanny Chouteau, Portfolio Lead for the Europe Middle East and Africa region at Bayer’s Crop Science division. Baya Solara is characterized by its large, uniform fruits and is designed to reduce post-harvest darkening, meeting the growing consumer and retail demand for high-quality strawberries. The fruit also offers a pleasant sweetness with a balanced sugar-acid ratio, making it an attractive option for consumers. In addition, this early-mid season June-bearer variety is designed to show significant improvement against common diseases, including Phytophthora cactorum, a fungal disease that causes the strawberries’ crown to rot. This genetic resistance is vital for ensuring the long-term viability of strawberry production. “Baya Solara is a strawberry that offers many benefits. For growers, it means a more productive and reliable harvest. For retailers, it delivers consistent, large, firm fruits with excellent shelf life, reducing waste and ensuring dependable quality. For families, it offers delicious strawberries that stay fresh longer, helping them reduce waste and enjoy every berry,” said VK Kishore, Head of Global Product Innovation for Vegetables at Bayer’s Crop Science division. Baya Solara will be available to growers in the UK, Germany and Benelux. The June-bearer is the first one to be commercially launched since the NIAB acquisition, and complements six other strawberry varieties, including Malling™ Ace, a highly versatile and productive everbearer that has been increasingly favoured by growers and consumers, and Malling™ Centenary, a June-bearer market-leading variety, highly regarded for its standout fruit quality. With more than 20 different crops and thousands of seed selections, Bayer’s Vegetable Seeds business supports a diverse range of growers with seed varieties tailored to the tastes and preferences of consumers around the globe. Key crops include Tomato, Cucumber, Broccoli, Carrots, Cauliflower, Eggplant, Lettuce, Melon, Onion, Pepper, Spinach, Sweet Corn and Watermelon. ]]> https://agrospectrumasia.com/news/160/3506/seqwell-launches-agriprep-library-prep-kit-for-low-coverage-whole-genome-sequencing.html https://agrospectrumasia.com/news/160/3506/seqwell-launches-agriprep-library-prep-kit-for-low-coverage-whole-genome-sequencing.html Thu, 08 Jan 2026 11:03:17 +0530 One-step library prep workflow designed to address the scalability, performance, and affordability needs of applied Agrigenomics seqWell, a global provider of genomic library and multiplexing workflow solutions, announced the launch of AgriPrep™ Library Prep Kit, the newest addition to its next-generation TnX™ transposase product portfolio. AgriPrep is designed to facilitate adoption of low-pass whole genome sequencing (LP-WGS) & SKIM-sequencing approaches that provide genome-wide insights at a fraction of the cost of WGS. “We have been trialing the seqWell AgriPrep method in our NGS service lab for low-pass whole genome sequencing and have been impressed by the workflow simplicity and the resulting cost-savings." Joris Parmentier, Assoc. Portfolio Dir. NGS at LGC Biosearch AgriPrep is a tagmentation-based library preparation technology powered by seqWell’s one-step ExpressPlex workflow, a simple 100-minute workflow requiring only 30 minutes of hands-on time. Availability of up to 3072 built-in indexes, protocol simplicity, and the ease of automation enable the ultra-high throughput scalability required for agrigenomic applications such as parentage analysis, genomic selection, trait mapping, and variant discovery. Joris Parmentier, Associate Portfolio Director NGS at LGC Biosearch Technologies, commented, “We have been trialing the seqWell AgriPrep method in our NGS service lab for low-pass whole genome sequencing and have been impressed by the workflow simplicity and the resulting cost-savings. The method shows promise for high throughput workflows in combination with the appropriate automation, and up- and downstream technology compatibility." “The rapid adoption of AgriPrep by small and large service providers and Agricultural Biotechnology companies pays tribute to the scope of the previously unmet need for affordable and scalable library prep within agrigenomics,” said Jack Leonard, co-founder and CTO at seqWell. “We believe relieving the NGS library prep bottleneck will have far reaching impacts on the conversion from microarrays to low-pass WGS bringing with it a wealth of actionable insights for more informed breeding and cultivation decision making.” ]]> https://agrospectrumasia.com/news/160/3496/korea-researchers-discover-a-molecular-switch-protecting-crops-from-freezing-cold.html https://agrospectrumasia.com/news/160/3496/korea-researchers-discover-a-molecular-switch-protecting-crops-from-freezing-cold.html Tue, 30 Dec 2025 03:30:04 +0530 Chonnam National University scientists new findings uncover a rapid molecular switch that rewires plant growth under cold stress, opening pathways to climate-resilient crops A research team from Korea have uncovered how plants rapidly activate a hidden genetic "switch" helping them survive in cold environments. They demonstrate that low temperatures induce a rewiring of a hormone signaling pathway, triggering the breakdown of auxin/indole acetic acid repressors, releasing ARF7 and ARF19 to activate the master gene CRF3, helping plants survive the cold. This offers a new path to breeding crops that remain productive even under unpredictable climate conditions. The onset of sudden cold spells can threaten plant survival, especially during early growth phases. But how do plants detect low temperatures fast enough to initiate life-saving changes? Researchers at Chonnam National University have identified a hidden molecular "off-switch" that quickly reprograms root development to withstand the adverse cold conditions. The study was led by Professor Jungmook Kim, Department of Bioenergy Science and Technology at Chonnam National University, working with researchers Uyen Thu Nguyen, Na Young Kang, and Dr. Dong Wook Lee, also from CNU. A new study from Chonnam National University reveals how cold stress rapidly degrades auxin/indole acetic acid proteins, releasing ARF7/19 to activate CRF genes and remodel plant roots for improved survival in adverse cold conditions. The team discovered that cold stress triggers the rapid degradation of auxin/indole acetic acid (Aux/IAA) proteins, which normally suppress growth-related gene activation. Once these repressors break down, key regulators ARF7 and ARF19 are released, enabling them to activate cytokinin response factor 3 (CRF3), a master regulator that reshapes root architecture to cope with cold conditions. "Cold stress doesn't simply slow plant growth—it actively rewires hormone signaling to adapt root development," says Prof. Kim. The study also reveals that cold conditions activate cytokinin signaling to induce CRF2, which works together with CRF3. The two genes act as integrators, combining environmental cues with internal hormone signals to fine-tune lateral root initiation under stress. This also established that auxin and cytokinin pathways converge at CRFs, forming a unified cold-response module. "Plants survive because they integrate external stress with internal developmental programs," Prof. Kim added. "We have identified one of the key switches enabling that integration." The findings highlight opportunities to protect crops from rising climate instability. By enhancing CRF2/CRF3 signaling or stabilizing ARF activity via targeted degradation of Aux/IAAs, scientists could develop crops that maintain stable root growth in cold soils. Such varieties would improve early-season growth establishment, increase nutrient uptake efficiency, and support sustainable agriculture with reduced fertilizer use. The study also highlights the potential for the development of synthetic molecules or biostimulants that could protect seedlings during unexpected spells of extreme cold. Over the next decade, this molecular pathway may help enable crop cultivation in harsher climates, and serve as a foundation for precision breeding and CRISPR-based engineering of climate-resilient crops. ]]> https://agrospectrumasia.com/news/160/3451/eu-approves-provisional-agreement-on-new-genomic-techniques-for-plant-breeding.html https://agrospectrumasia.com/news/160/3451/eu-approves-provisional-agreement-on-new-genomic-techniques-for-plant-breeding.html Fri, 05 Dec 2025 11:37:12 +0530 Innovative new genomic techniques (NGTs) to enhance agricultural sustainability and competitiveness The European Commission welcomes the provisional political agreement reached by the European Parliament and the Council of the EU on new EU rules for plants obtained by using new genomic techniques (NGTs). The agreed measures will enable more innovative plant breeding in the EU, helping farmers to grow plants that are more resilient to climate change and making them more sustainable as producers will require less resources, fertilisers and pesticides to fight pests. This will allow breeders and farmers to be more competitive by levelling the international playing field with other producers. The new measures will significantly reduce the administrative burden too, while ensuring high safety standards for NGT plants and products. New genomic techniques are innovative tools that can boost our agricultural and bioeconomy sectors through enabling faster, more targeted and more precise changes to plant varieties than conventional breeding techniques. More improved plant varieties can be developed, such as those that are climate resilient, pest resistant, or provide higher yields. Once adopted and fully implemented, the measures agreed today will create two distinct pathways for NGT plants to be placed on the market: NGT plants that could also occur naturally or by conventional breeding (so-called 'category 1 NGT plants') will be subject to a verification procedure, based on set criteria. NGT plants that meet these criteria will be treated like conventional plants and exempted from the requirements of the genetically modified organisms (GMO) legislation; For all other NGT plants ('category 2 NGT plants'), the requirements of the current GMO legislation would apply. They will be subject to a risk assessment and authorisation procedure before they can be put on the market. They will have to be traceable and labelled as GMOs, with the possibility of a voluntary label to indicate the purpose of the genetic modification. The Commission will oversee transparency and licencing practices related to patents, and provide guidance where needed. It will also assess the impact of patents on breeders' access to genetic material and on farmers' access to plant varieties, with a view to proposing follow-up measures if necessary. Next steps The agreed Regulation must be formally adopted by the Council and the European Parliament. It will be published in the Official Journal in the course of 2026 and will start applying two years later. The implementation of the Regulation will be supported by a robust monitoring programme of economic, environmental and social impacts of NGT products that will focus, inter alia, on aspects of sustainability and safety. ]]> https://agrospectrumasia.com/news/160/3326/futuragene-makes-world-first-regulatory-submission-for-gene-edited-eucalyptus.html https://agrospectrumasia.com/news/160/3326/futuragene-makes-world-first-regulatory-submission-for-gene-edited-eucalyptus.html Wed, 15 Oct 2025 08:18:00 +0530 New variety of gene-edited eucalyptus produces wood that is easier to process industrially, reducing chemical and energy input requirements for pulp production FuturaGene, the biotechnology subsidiary of the world’s largest pulp supplier, Suzano, has formally submitted its first consultation letter to Brazil’s National Biosafety Technical Commission (CTNBio) regarding gene-edited eucalyptus. This marks the world’s first regulatory submission for gene-edited eucalyptus, made in accordance with CTNBio’s Normative Resolution No. 16 (RN 16), which contains provisions for regulatory exemption for certain types of gene editing. This includes circumstances where gene-edited crops do not contain foreign DNA, where they can be exempted from the regulatory process for genetically modified organisms (GMO) and treated in a similar way to conventional plants. FuturaGene’s innovation is designed to deliver wood that is easier to process industrially, supporting more efficient and sustainable pulp production by reducing chemical and energy input requirements. It was developed using CRISPR-Cas9, a New Breeding Technique (NBT), which enabled a highly precise single-gene edit in the eucalyptus, with no DNA introduced from other species, mimicking a change that could also occur in nature or be achieved through conventional breeding. Dr. Stanley Hirsch, CEO of FuturaGene said: “This is a milestone moment for tree farming and pulp production. At FuturaGene our mission is to harness cutting-edge science responsibly, to help to address climate change and its impacts, and meet the rising global demand for bio-based products while protecting nature. We want to ensure that each new generation of eucalyptus advances sustainability and efficiency in our use of land and resources. This world-first gene edited eucalyptus complements our existing knowledge base and technology portfolio. By embracing the full range of available biotechnology tools, including genetic modification and gene editing, we are creating better trees that will create a better industry.” FuturaGene is a pioneer in eucalyptus biotechnology, having already obtained 11 approvals for genetically modified (GM) eucalyptus from CTNBio, with traits including yield enhancement, herbicide tolerance, and insect resistance. The submission will be now reviewed by CTNBio to determine whether this new eucalyptus variety can be classified as equivalent to conventional varieties, and if so, will remove any requirements for further biosafety evaluation in Brazil. ]]> https://agrospectrumasia.com/news/160/3271/plantarcbio-secures-u-s-and-south-korea-patents-for-dipper-platform-advancing-gene-editing-optimization-in-crops.html https://agrospectrumasia.com/news/160/3271/plantarcbio-secures-u-s-and-south-korea-patents-for-dipper-platform-advancing-gene-editing-optimization-in-crops.html Fri, 19 Sep 2025 10:13:23 +0530 DIPPER™ platform accelerates development of drought-tolerant, high-yield, and resilient crops worldwide PlantArcBio has been granted patents in the United States and South Korea for its proprietary DIPPER™ platform, a breakthrough technology designed to optimize gene expression for gene-editing processes in crops. The DIPPER™ platform represents a significant advancement in plant biotechnology, enabling researchers and breeders to enhance the efficiency and precision of processes using gene-editing tools such as CRISPR to improve crop performance. Unlike traditional trial-and-error approaches, DIPPER™ employs a high-throughput, in planta system to systematically identify regulatory and coding DNA elements that maximize gene expression and trait performance across a wide range of crops and traits. A critical challenge in developing gene-edited crops is identifying precise DNA modifications that are required to improve plant functionality, rather than relying solely on gene deletions. DIPPER™ addresses this challenge by providing a precise method to pinpoint optimal DNA changes, shortening the trait development timeline and allowing seed companies to bring new crop traits to market faster and more efficiently, benefiting both farmers and consumers. "The swift granting of these patents underscores PlantArcBio's commitment to delivering cutting-edge, scalable solutions for global agriculture," said Dror Shalitin, CEO of PlantArcBio. "DIPPER™ is a game-changing platform that accelerates the development of traits such as drought tolerance, yield enhancement, herbicide resistance, and nutritional improvement, helping farmers worldwide meet the growing demands of sustainable food production." The patents strengthen PlantArcBio's intellectual property portfolio and highlight DIPPER™'s potential as a prerequisite for the successful use of gene-editing tools such as CRISPR in major crops including corn, soybean, wheat, rice, vegetables, and more. The platform paves the way for novel trait development and faster commercialization timelines, positioning PlantArcBio at the forefront of modern agricultural innovation. PlantArcBio is an ag-biotech company developing gene discovery and RNAi-based solutions to enhance crop traits and biologically control pests, with a vision to improve global food security and promote sustainable agriculture. The company's proprietary DIP™ and DIPPER™ platforms enable the discovery and development of novel genes and gene-editing targets, with game-changing effects on plants - including yield improvement, drought resistance, herbicide tolerance, and nutritional enhancement. ]]> https://agrospectrumasia.com/news/160/3269/why-africas-future-lies-in-biofortified-crops-and-precision-breeding-exclusive-with-prof-adenle.html https://agrospectrumasia.com/news/160/3269/why-africas-future-lies-in-biofortified-crops-and-precision-breeding-exclusive-with-prof-adenle.html Thu, 18 Sep 2025 18:00:50 +0530 In this Exclusive AgroSpectrum Interview, Prof. Ademola Adenle, PhD (Nottingham), MPP (Oxon)—Senior Special Adviser on Agricultural Innovation at Nigeria’s Federal Ministry of Agriculture and Food Security, and the inaugural laureate of the TWAS–M S Swaminathan Award for Food and Peace—articulates a bold vision for science-driven agricultural transformation. He underscores the pivotal role of climate-resilient and biofortified crops in combating hunger and malnutrition, while insisting that true impact lies in farmer-led adoption and participatory systems. Prof. Adenle highlights how genomic tools, AI, and precision breeding are redefining crop science in Africa, but cautions that sustained progress requires cohesive Pan-African policies and inclusive engagement with farming communities. Above all, he emphasizes that resilient, nutritious, and locally adapted food systems are not just instruments of food security, but essential foundations for peace, stability, and prosperity across Africa. You’ve been honored with the MS Swaminathan Award for Food and Peace—an accolade that celebrates scientific innovation in service of humanity. What is the big-picture vision that drives your work on high-yielding, climate-resilient, and fortified crops? As the first recipient of the inaugural World Academy of Sciences and Swaminathan Award for Food and Peace, I am deeply honored and grateful for this recognition. I have no doubt that the jury carefully examined my research at the intersection of the natural and social sciences, where science and innovation play a critical role in addressing food insecurity, malnutrition, poverty, and ultimately fostering peace. My work is particularly significant in Africa, where food insecurity breeds desperation, malnutrition fuels poverty, and chronic hunger can lead to unrest. Yet, when science and innovation are linked to local action, meaningful change begins to take root. This underscores the urgent need to develop high-yielding, climate-resilient, and fortified crops to tackle low productivity, drought, and nutrition-related diseases in developing regions, including African countries. In this regard, I led the largest study in the history of GM agriculture in Africa. I have long believed that GM technology could help address part of these challenges, especially by developing crops tailored to local needs. However, the failure to meaningfully engage local stakeholders has often hindered progress in achieving the desired outcomes. Nigeria faces extreme weather patterns from droughts in the north to floods in the south. How do you see crop science evolving to not just survive these conditions but thrive in them? Nigeria’s agriculture sits at the frontline of climate change, facing recurring droughts in the north and floods in the south, both of which threaten food security and rural livelihoods. Crop science must evolve not just to help farmers survive these shocks, but to enable them to thrive despite them. This means intensifying research and development in climate-resilient crops such as maize, rice, sorghum, and millet that are capable of withstanding these extreme conditions while maintaining high yields and nutritional quality. To achieve this, Nigeria needs sustained investment in crop science, with strong collaboration between government, local scientists, and farmers. Developing locally adapted varieties that combine resilience with productivity is critical. Equally important is ensuring that farmers can access and adopt these innovations through effective extension systems, supportive policies, and market linkages. If approached strategically, crop science can transform Nigeria’s vulnerability into resilience, building an agricultural system that not only endures climate shocks but also drives improved incomes, nutrition, and livelihoods nationwide. Biofortification has been called the “silent revolution” in public health. How do you design crops that are both nutrient-rich and culturally acceptable to the communities that grow and consume them? The consumption of vegetables, legumes, and fruits is one of the most sustainable ways to reduce and control micronutrient deficiencies in resource-poor communities. Indigenous vegetables, in particular, are not only rich in micronutrients but also possess other desirable traits. They are often easier to grow, resistant to pests and diseases, and well-suited to local tastes. However, in many countries, including India and Nigeria, indigenous crops are at risk of extinction as they are increasingly replaced by high-yielding commercial varieties. Once an indigenous variety is lost, it cannot be recovered, underscoring the urgent need for preservation. During my award ceremony, I had the opportunity to engage with the Indian Council of Agricultural Research (ICAR) and the National Bureau for Plant Genetic Resources (NBPGR). I learned that NBPGR is not only conducting research on indigenous crops but also conserving tens of thousands of germplasm varieties across the country. In contrast, Nigeria’s efforts to conserve nutrient-rich and culturally significant germplasm remain limited. Nigeria can learn from India’s model, where designated institutes are mandated to conserve different crops through regional gene banks. In addition, developing countries should actively promote biofortified crops, particularly local varieties, to address micronutrient deficiencies and improve vitamin intake. This can only be achieved through stronger collaboration between scientists, policymakers, and local farmers to ensure that improved varieties remain both nutritionally beneficial and culturally acceptable. Many breakthrough agricultural technologies fail to reach smallholder farmers at scale. What’s your blueprint for bridging the gap between innovation and adoption at the grassroots level ? Understanding local farmers’ varieties is essential for the successful adoption of new agricultural technologies. Many underinvested crops in Sub-Saharan Africa (SSA) have lower adoption rates compared to Asia and South America, largely because they remain traditional low-yielding varieties. However, adoption rates vary significantly from region to region and country to country. For instance, the adoption of improved groundnut varieties in Tanzania is only 19 per cent—about half the rate observed in Malawi, particularly for modern varieties. Farmers seeking improved varieties often face limited options due to the narrow portfolio supported by agricultural input delivery agencies. Addressing this challenge requires targeted research and development programmes that help farmers upgrade underinvested crops, with strong involvement of local researchers. Evidence shows that high adoption rates of new agri-innovations are possible when delivered through farmer-led systems, underscoring their effectiveness. To bridge the gap between innovation and grassroots adoption, it is vital to promote participatory and inclusive training approaches such as farmer field schools and result demonstrations. These methods, designed to align with adult education, enhance proximity between trainers and learners, making knowledge transfer more effective. Accordingly, farmer-led knowledge dissemination systems should prioritise in-person training sessions supported by hands-on demonstrations of new technologies in target communities How are tools like genomic sequencing, AI-based climate modeling, and precision breeding transforming your crop development process—and what’s the next frontier ? Fourth Industrial Revolution technologies—including gene editing, synthetic biology, smart irrigation, artificial intelligence (AI), and precision breeding, are emerging as promising solutions for the future of agriculture. These innovations will be critical in developing high-yielding crop varieties with superior adaptability to changing and unpredictable climates. Such advances are imperative not only for ensuring food security, but also for sustaining biomass production and preserving ecosystem services. For example, gene editing offers a more precise and efficient approach compared to GMOs or traditional breeding, enabling the development of crops with targeted traits such as drought tolerance, pest resistance, or enhanced nutritional content. Similarly, AI facilitates high-throughput phenotyping, functional gene analysis, and the processing of extensive environmental datasets, revolutionising agricultural decision-making by transforming fragmented market and field information into systematic, data-driven breeding strategies. By combining these tools, agriculture can move towards a more resilient and sustainable future, where innovation directly addresses the pressing challenges of productivity, climate adaptation, and nutrition. Agriculture doesn’t operate in a vacuum. How should governments, regional bodies, and research institutions collaborate to create enabling environments for climate-resilient and fortified crops? A Pan-African agricultural policy should adopt a whole-of-government approach that considers regional challenges while aligning with national agricultural innovations. Such a policy must address the concerns of smallholder farmers, integrate them into domestic and regional markets, and ultimately graduate them into global value chains. Scaling up innovation will be critical, particularly through the introduction of locally relevant agricultural technologies that enhance climate resilience, improve incomes, and strengthen rural livelihoods. This requires policies that are regionally coordinated yet locally informed. For instance, climate-resilient measures that succeed in one locality may not seamlessly translate to other regions with different soils, climates, or market structures. The success of each initiative often hinges on adequate funding, technical expertise, and sustained policy support, resources that may not always be available at scale. To overcome these barriers, policymakers must design robust replication strategies that account for local variations. This includes adapting extension materials, maintaining flexible budgets to address unforeseen challenges, and establishing continuous feedback loops with local stakeholders to iteratively refine methodologies. At the same time, global advocacy for climate-resilient technologies often fails to align with regional or national realities. While this misalignment complicates implementation, it can also create opportunities for cross-sectoral innovation, provided that solutions are tailored to Pan-African policy frameworks grounded in inclusive stakeholder engagement. Strong national government advocacy, coupled with active involvement of farmers and scientists, will be vital to ensuring that innovation meets real needs on the ground. Partnerships between public agencies, private firms, and community organizations will further strengthen this agenda. By pooling resources, fostering technological breakthroughs, and opening new market niches for climate-resilient commodities, such collaborations can accelerate the transition toward a more sustainable and resilient African agricultural system Beyond yield metrics, what indicators—economic, nutritional, and social—do you use to gauge the success of your interventions? The lack of harmonised indicators or metrics in monitoring and evaluation (M&E) frameworks, whether for measuring economic, nutritional, or social impacts, often makes it difficult to track the effective implementation of new agricultural technology programmes. Indicators should therefore be prioritised and remain flexible, adapting to the development stage of each project as well as the information needs of stakeholders. For instance, biofortification programmes evolve through different implementation stages, from the breeding phase to the introduction of biofortified crops and eventually to scaling. Along this pathway, the focus of indicators typically shifts: early stages emphasize programme outputs, while later stages assess outcomes and impacts, requiring different sets of factors to be considered. The number and type of indicators may also change over time, with the scaling phase demanding cost-efficient prioritisation of M&E activities tailored to the specific technology. Further research is needed to test, revise, and develop mechanisms that harmonise M&E frameworks across programmes, institutions, countries, and regions. Such harmonisation will be crucial in ensuring comparability, improving accountability, and guiding evidence-based decisions to maximise the impact of agricultural innovations.  Is there a particular farmer, community, or moment in the field that has crystallised the importance of your work? Yes, there have been several moments in the field that crystallised the importance of my work, particularly during my research on GMOs across multiple African countries. In conversations with farmers, a recurring theme was their strong desire to be included in the decision-making and development processes of new crop technologies. Many emphasized the importance of prioritising their local cultivars and varieties, which are deeply tied to their cultural practices, diets, and resilience strategies. This reinforced to me that for new technologies to succeed, whether GMOs or other innovations, they must not be imposed from the top down but rather built upon what farmers already know and value. Farmers repeatedly reminded me that adoption, scaling, and diffusion of new crop varieties can only occur when technologies are relevant to their realities. In many cases, farmers expressed gratitude that a scientist like myself was actively voicing these concerns on their behalf. Too often, their perspectives are overlooked, sometimes due to external pressures from governments, donors, or private sector interests. These field experiences crystallised my conviction that inclusive engagement, farmer participation, and respect for local varieties are not just desirable, but essential if agricultural innovations are to be impactful and sustainable in Africa. What lessons from Nigeria’s agricultural transformation can be exported to other African nations facing similar climate and nutrition challenges? One of the key lessons from Nigeria’s agricultural transformation that can be exported to other African nations is the deliberate focus on empowering youth and women in agriculture. By providing targeted support to these groups, Nigeria has sought to boost productivity, enhance agribusiness opportunities, and in turn contribute not only to economic growth but also to improved livelihoods at the household level. Another important lesson is Nigeria’s investment in research and development programmes aimed at tackling climate and nutrition challenges simultaneously. For example, significant efforts have been made in developing and promoting biofortified crops such as cassava, millet, maize, and sweet potato to address widespread micronutrient deficiencies-a pressing public health challenge across the continent. With government and partner support, the inclusion of biofortified foods in traditional school meal programmes has already led to measurable improvements in vitamin A, zinc, and iron intake among children. In addition, Nigeria is investing in the development of drought-tolerant crop varieties that are resilient to the impacts of climate change. These efforts underscore the importance of adapting agricultural research to local contexts and prioritising varieties that are culturally acceptable and widely consumed. However, an important lesson for Africa as a whole is that innovation alone is not sufficient. Scaling and adoption require parallel investments in educational campaigns, improved supply chains, and the creation of demand for both biofortified and climate-resilient crops. By aligning research with farmer needs, strengthening awareness, and ensuring access, African nations can accelerate adoption and diffusion of agricultural innovations that improve nutrition, build resilience, and drive inclusive growth.  The MS Swaminathan Award connects agriculture with peace. How do you see secure, nutritious, and climate-resilient food systems contributing to social stability in Africa? The M S Swaminathan Award rightly highlights the nexus between agriculture and peace, and I firmly believe that secure, nutritious, and climate-resilient food systems are foundational to social stability in Africa. The impacts of climate change on agriculture in the Global South, and Africa in particular, are both direct and insidious. Major staples such as wheat, maize, and rice are being undermined by shifting rainfall patterns, rising temperatures, and the growing frequency of extreme weather events. These stresses not only reduce yields but also lower micronutrient content, such as zinc and iron, intensifying a public health crisis in regions already burdened by malnutrition. The vulnerability of Africa’s food systems is further exposed by global interdependencies. For example, droughts across the developing world and the Russia-Ukraine war have disrupted grain supplies and destabilised both local and global markets. The resulting food shortages, combined with price spikes, have already fueled social unrest in several African countries, underscoring the link between food insecurity and instability. To overcome these challenges, Africa must prioritise both adaptation and mitigation strategies. This includes pursuing bold policies that accelerate the development and adoption of climate-resilient crop varieties tailored to smallholder farmers; investing in smart irrigation and climate-smart farming practices; and putting in place long-term agricultural policies that reduce dependency on imported staples by encouraging the cultivation of locally adaptable crops. Equally important is government support for capacity-building, rural road networks, and modern storage facilities to strengthen supply chains and reduce post-harvest losses. By creating food systems that are secure, nutritious, and resilient, Africa can not only safeguard public health and improve livelihoods but also prevent hunger-driven unrest and contribute to lasting peace and stability across the continent ----- Suchetana Choudhury (suchetana.choudhuri@agrospectrumindia.com ) ]]> https://agrospectrumasia.com/news/160/3192/new-zealand-viticulture-to-be-revolutionized-by-genomics-under-lincoln-university-mgi-tech-collaboration.html https://agrospectrumasia.com/news/160/3192/new-zealand-viticulture-to-be-revolutionized-by-genomics-under-lincoln-university-mgi-tech-collaboration.html Mon, 18 Aug 2025 08:27:00 +0530 Aims to develop pest-resistant grapevine and hop varieties to reduce fungicide use in New Zealand's $2.1 billion wine export industry MGI Tech Co., Ltd., a company developing tools and technologies for life sciences, has joined efforts with Lincoln University in Canterbury to address sustainable challenges in viticulture through advanced sequencing technology. With genomics, the initiative aims to develop better grapevine and hop varieties that are tolerant to pests and diseases, reducing fungicide use across New Zealand's $2.1 billion wine export industry.    Viticulture Challenges in New Zealand: Disease, Chemicals and Sustainability Pressure Viticulture is a significant economic source of revenue for New Zealand, ranking as the nation's sixth-largest export earner. However, like many primary sectors, it faces intensifying pressure to improve sustainability and reduce environmental impact. The country's vineyards are particularly vulnerable to fungal diseases, often requiring frequent and broad-spectrum spraying to maintain vine health and grape quality. Each year, New Zealand farmers apply approximately 3,400 tonnes of pesticides. Alarmingly, under the US Environmental Protection Agency classification, 60% of fungicides and 72% of plant growth regulators used locally are considered potential carcinogens. This has placed the sector in the crosshairs of consumer and environmental scrutiny, particularly as climate change drives more volatile weather conditions that heighten disease risks. New Pathways from Genomics To address these challenges, a team of New Zealand scientists have started a genomic study to reduce the wine sector's reliance on chemical sprays. By using advanced sequencing technology, researchers can now rapidly scan thousands of grapevine samples to identify those with natural resistance to disease and environmental stress. Associate Professor Christopher Winefield, from Lincoln University's Department of Wine, Food & Molecular Biosciences, who first introduced genomics into his research to explore traits like fungal tolerance and soil health response, is now scaling the project significantly through MGI's high-throughput sequencing platform. This approach not only opens a pathway to breed more resilient grape varieties, it also enables real-time monitoring of vineyard conditions, laying the foundation for more targeted, sustainable and cost-effective vineyard management. The genomics practices allow scientists to map the natural genetic diversity within thousands of grapevines, identifying those with inherent disease resistance. Early findings suggest that, with targeted intervention informed by this data, chemical spray use could be reduced by up to 80% in some vineyards. Lincoln University researchers have installed the MGI DNBSEQ-G400 genome sequencer, a next-generation sequencing platform enabling unprecedented scale and speed in genomics with economic cost. Traditionally, testing a few hundred grapevine samples per year was considered standard. Now, the lab can process over 50,000 annually – a one-hundredfold increase in volume. The MGI DNBSEQ-G400 platform can support real-time sequencing to detect pathogens like powdery mildew and mealybug. This enables precision agriculture approaches, where interventions are localised rather than applied uniformly. The genomic data is also helping scientists identify vines that are more resilient under water stress or nutrient limitations – a key consideration as climate volatility increases. Beyond academia, the project has commercial ambitions. Winefield and his colleagues are forming a standalone venture to bring affordable genomic testing to the country's broader agriculture sector. The startup will serve viticulture, horticulture, and dairy farms, giving producers access to real-time insights previously confined to high-cost labs. This data-driven model would enable even small-scale producers to detect early signs of disease, make proactive crop management decisions, and cut down on unnecessary chemical inputs. The implications of the study extend well beyond New Zealand. With international viticulture facing similar challenges, the Canterbury research could become a blueprint for sustainable production globally. According to Winefield, New Zealand's unique microclimates and robust science infrastructure make it an ideal testbed. ]]> https://agrospectrumasia.com/news/160/3171/mars-and-pairwise-collaborate-to-accelerate-cacao-research-and-development.html https://agrospectrumasia.com/news/160/3171/mars-and-pairwise-collaborate-to-accelerate-cacao-research-and-development.html Fri, 08 Aug 2025 09:38:47 +0530 Revolutionizing Cacao Research with Precision Gene Editing Tools Mars, Incorporated has licensed Pairwise's Fulcrum® gene editing tools for cacao research and development. This licensing agreement grants Mars access to Pairwise's CRISPR tools, including the SHARC™ enzyme. The Pairwise Fulcrum™ platform encompasses gene editing tools, enzymes and trait libraries, enabling precise changes that unlock the plant’s inherent potential. This capability significantly accelerates the development of impactful crop traits compared to traditional breeding methods, allowing for the activation or deactivation of characteristics and fine-tuning traits, much like adjusting a dimmer switch to achieve optimal results.   Mars aims to develop this advanced plant breeding technology to improve cacao production and effectively tackle agricultural challenges. The ultimate goal is to help address the pressures cacao faces globally from climate variability, plant diseases and environmental stresses. This strategic initiative underscores the potential of this technology to drive meaningful advancements in agriculture.   "At Mars, we believe CRISPR has the potential to improve crops in ways that support and strengthen global supply chains," said Carl Jones, Plant Sciences Director at Mars. "Our focus is to transparently and responsibly conduct CRISPR research in plant science that helps crops better adapt to climate challenges, disease pressures and resource constraints."   "We're pleased to provide Mars with access to our Fulcrum™ platform for their cacao research and development initiatives," said Ian Miller, Chief Operating Officer at Pairwise. "Plant breeding innovation has the potential to help address important agricultural challenges, and we look forward to supporting Mars' research goals."   The Pairwise Fulcrum® platform includes gene editing tools, enzymes and trait libraries, enabling precise changes that unlock the plant’s inherent potential to greatly accelerate the development of impactful crop traits compared to traditional breeding methods. ]]> https://agrospectrumasia.com/news/160/3159/bioconsortia-to-launch-innovative-nitrogen-fixing-biofertilizer-globally.html https://agrospectrumasia.com/news/160/3159/bioconsortia-to-launch-innovative-nitrogen-fixing-biofertilizer-globally.html Mon, 04 Aug 2025 10:13:13 +0530 Always-N™ product poised to transform industrial corn production with sustainable, gene-edited microbe BioConsortia, Inc., a leader in microbial innovation for sustainable agriculture, has secured $15 million in additional funding, bringing its total investment to $95 million.  The new funding will accelerate the global launch of Always-N™, BioConsortia’s groundbreaking nitrogen-fixing seed treatment for industrial corn and support continued expansion of its discovery and development engine at the company’s Davis, California headquarters. BioConsortia continues development of its nitrogen-fixing microbial seed treatment product line, with more than 1,000 trials in the past five years. The new funding will accelerate the global launch of Always-N™, BioConsortia’s groundbreaking nitrogen-fixing seed treatment for industrial corn and support continued expansion of its discovery and development engine at the company’s Davis, California headquarters. Always-N enables farmers to maintain crop yields while reducing reliance on synthetic nitrogen fertilizers—significantly lowering greenhouse gas emissions and improving soil health. Applied as a seed treatment, Always-N delivers consistent field performance and is the only nitrogen-fixing biofertilizer combining advanced gene editing and extended viability exceeding two years. "Synthetic nitrogen fertilizers are essential to modern agriculture, but their overuse comes at a steep environmental cost,” said Meadows-Smith. “With Always-N, we offer a powerful, sustainable alternative—backed by cutting-edge science and built for real-world performance.” Roughly half of applied synthetic nitrogen is never absorbed by crops. Instead, it runs off into waterways or is broken down in soil, releasing nitrous oxide—a greenhouse gas 300 times more potent than CO₂. As regulatory and market pressure builds for climate-smart farming, demand for sustainable alternatives like Always-N is growing rapidly. Following its successful commercial debut in New Zealand in 2024, Always-N is now preparing for broader market entry, supported by key global partners including The Mosaic Company in row crops in the Americas. The new funding enables BioConsortia to scale manufacturing, build inventory, and expand market access in anticipation of the upcoming growing season. Always-N is powered by BioConsortia’s discovery and development platform - an integrated engine using proprietary tools for microbial discovery, selection, and optimization. It begins with Advanced Microbial Selection™ (AMS) to identify high-performing plant-associated microbes, then uses GenExpress™ and GenePro™ tools to enhance traits such as nitrogen fixation, disease and pest control, and shelf-life. In addition to Always-N™, BioConsortia is advancing a robust pipeline of next-generation biostimulants, fungicides, nematicides, and insecticides—engineered for extended shelf life, ease of use, and superior field efficacy. BioConsortia has validated its platform across diverse crops, geographies, and soil types. Field trials have consistently demonstrated the efficacy of its microbial biofertilizers, fungicides, nematicides, and insecticides—delivering growers new tools for sustainable, high-yield farming. BioConsortia, pioneering next-generation agricultural biologicals through cutting-edge microbial gene editing. In nitrogen fixation, biocontrol, and biostimulants, breakthroughs in editing only the most stable microbes unlock unprecedented performance-delivering solutions that are more effective, more consistent, and easier to use than anything currently available. ]]> https://agrospectrumasia.com/news/160/3068/kws-and-limagrain-to-divest-north-american-joint-venture-agreliant-genetics-to-gdm.html https://agrospectrumasia.com/news/160/3068/kws-and-limagrain-to-divest-north-american-joint-venture-agreliant-genetics-to-gdm.html Mon, 30 Jun 2025 11:02:24 +0530 This transaction marks an important milestone for Vilmorin & Cie, enabling to further focus on its strategic priorities and to reinforce its other territories as it continues advancing on its Ambition 2030 roadmap. The seed companies KWS and Limagrain announced the sale of their North American Joint Venture (JV) AgReliant Genetics to GDM, a global leader in plant genetics. The three companies signed a binding agreement. The AgReliant Genetics Joint Venture (50/50) was established in 2000 between Limagrain and KWS. AgReliant specializes in research, production, and sale of seeds and offers high-performance varieties for corn, soybeans and other seeds across North America. “We are proud of what AgReliant has accomplished over the past 25 years. It has successfully built a business serving North American farmers with high-performing germplasm”, explains Nicolás Wielandt, KWS Executive Board member responsible for the corn business. “Capitalizing on the strength and experience of GDM as the world leader in soybean genetics and future owner, I am convinced that AgReliant will become a stronger player to the benefit of its clients and employees.” With this step, KWS is consistently pursuing its strategy of long-term profitable growth and independent decision-making to support the future needs of farming. This includes the further strengthening of KWS’ leading position in key crops throughout innovations, the development of a strong footprint in the vegetable seed market, the supply for an increasing demand of plant-based protein and driving the hybridization of different crops forward. Regarding the corn business, KWS is realigning its portfolio, focusing more strongly on the European market, where it holds a profitable leading position. In addition, geographically, KWS will expand its existing successful product portfolio of sugarbeet, cereals, and vegetable varieties in North America. The total transaction amount for the KWS shares in AgReliant and related germplasm is in the low three-digit million range (USD). Further details remain confidential. The transaction is subject to customary regulatory approvals and closing conditions. The transaction is expected to close during the third quarter of 2025. ]]> https://agrospectrumasia.com/news/160/3028/pairwise-grants-gene-editing-tech-to-cimmyt-to-accelerate-smallholder-farm-innovation.html https://agrospectrumasia.com/news/160/3028/pairwise-grants-gene-editing-tech-to-cimmyt-to-accelerate-smallholder-farm-innovation.html Mon, 16 Jun 2025 12:22:09 +0530 Pairwise has signed a landmark licensing agreement with CIMMYT, granting access to its Fulcrum gene editing platform and cutting-edge SHARC CRISPR enzyme. The collaboration aims to fast-track the creation of improved crop varieties for smallholder farmers across 20 countries where CIMMYT operates integrated R&D programs. In a major step toward transforming agriculture in the Global South, agricultural genetics company Pairwise has licensed its advanced Fulcrum™ gene editing platform to the International Maize and Wheat Improvement Center (CIMMYT). The agreement grants CIMMYT and its National Agricultural Research System (NARS) partners access to powerful gene editing tools—including the SHARC CRISPR enzyme—to accelerate the development of improved, climate-resilient crop varieties for smallholder farmers across more than 20 countries. CIMMYT, headquartered in Mexico and operating in 88 countries, is a key institution within the CGIAR global research network and a leader in food security and climate resilience. The partnership will enable targeted innovation in staple crops such as maize, wheat, and sorghum, as well as regionally important crops like pearl millet, finger millet, pigeon pea, and groundnut. “Advanced breeding techniques replicate what happens in nature in a faster, more focused way,” said Dr. Sarah Hearne, Chief Science and Innovation Officer at CIMMYT. “Access to Fulcrum’s gene editing technology will help us develop and deliver traits that boost resilience and nutrition—tools that smallholder farmers urgently need to improve livelihoods and strengthen food systems.” The Fulcrum™ Platform includes precision tools for cutting, base editing, and templated editing, allowing scientists not only to activate or silence genes, but also fine-tune them—like adjusting a dimmer switch—to optimize desired traits and crop performance. Pairwise Chief Operating Officer Ian Miller noted that the licensing agreement aligns with the company’s mission to make cutting-edge tools available for global agricultural challenges. “Our Fulcrum Platform was built to help scientists tackle urgent, real-world challenges in agriculture,” he said. “By licensing these tools to CIMMYT, we’re enabling real-world solutions for farmers dealing with food insecurity and climate stress.” Gene editing offers the potential to achieve genetic improvements that traditional breeding could reach only over much longer timelines and at higher costs. Through this partnership, such innovations will be brought faster to farmers in regions where they are most needed, with the potential to significantly improve yield, nutrition, and climate resilience. The collaboration also reflects a growing commitment to ensure that the benefits of biotechnology extend to underserved farming communities, supporting food security and sustainable agricultural development across the Global South. ]]> https://agrospectrumasia.com/news/160/3011/evogene-and-google-cloud-unveil-first-of-its-kind-foundation-model-for-generative-molecule-design.html https://agrospectrumasia.com/news/160/3011/evogene-and-google-cloud-unveil-first-of-its-kind-foundation-model-for-generative-molecule-design.html Wed, 11 Jun 2025 10:34:44 +0530 The new model tackles the complex challenge of designing novel small molecules that satisfy multiple product criteria—an essential capability for applications in both pharmaceuticals and agriculture Evogene Ltd , a leading computational biology company, announced the completion of version 1.0 of its generative AI foundation model for small molecule design, developed in collaboration with Google Cloud. This first-in-class model powers ChemPass AI, Evogene’s platform for small molecule discovery and optimization, and represents a major leap forward in life-science R&D. The model addresses a critical bottleneck in both pharmaceutical and agricultural product development: the ability to design novel small molecules that meet multiple complex criteria—such as efficacy, safety, stability, and patentability—simultaneously. Traditional methods typically handle these challenges in sequence, limiting innovation and IP potential. In contrast, Evogene’s model enables multi-parameter optimization from the start. Trained on a vast dataset of 38 billion molecular structures using Google Cloud’s advanced AI infrastructure, the model has demonstrated approximately 90 per cent precision in generating synthesizable, effective, and patentable molecules—compared to ~29 per cent using conventional GPT-based models. "Completing our foundation model is a major milestone," said Ofer Haviv, President and CEO of Evogene. "It empowers ChemPass AI to create entirely novel, IP-rich molecules, helping to reduce late-stage failures in pharma and bring more effective, sustainable ag-chemicals to market." Boaz Maoz, Managing Director of Google Cloud Israel, added: "Evogene’s innovation showcases the powerful synergy between deep scientific expertise and advanced AI infrastructure. We’re excited to support their work in reshaping drug and ag-chemical discovery." Looking ahead, version 2.0 of the model is already in development, with enhanced flexibility for tailoring molecule design to specific therapeutic or agricultural contexts. It will improve ChemPass AI’s ability to balance real-world constraints—like toxicity, regulatory fit, and cost-effectiveness—making it even more valuable for industry adoption. Evogene is actively engaging with partners in both pharma and ag-tech sectors to integrate ChemPass AI into next-generation product pipelines. ]]> https://agrospectrumasia.com/news/160/2969/smart-researchers-unlock-the-secrets-to-plant-growth-with-breakthrough-universal-nanosensor.html https://agrospectrumasia.com/news/160/2969/smart-researchers-unlock-the-secrets-to-plant-growth-with-breakthrough-universal-nanosensor.html Wed, 28 May 2025 10:20:24 +0530 SMART researchers developed the world’s first near-infrared (NIR) fluorescent nanosensor capable of real-time, species-agnostic detection of IAA Singapore researchers from the Disruptive & Sustainable Technologies for Agricultural Precision (DiSTAP) interdisciplinary research group (IRG) of Singapore-MIT Alliance for Research and Technology (SMART), MIT’s research enterprise in Singapore, in collaboration with Temasek Life Sciences Laboratory (TLL) and Massachusetts Institute of Technology (MIT), have developed the world’s first near-infrared (NIR) fluorescent nanosensor capable of real-time, non-destructive and species-agnostic detection of indole-3-acetic acid (IAA) – the primary bioactive auxin hormone that controls the way plants develop, grow and respond to stress. Auxins, particularly IAA, play a central role in regulating key plant processes such as cell division, elongation, root and shoot development, and response to environmental cues like light, heat and drought. External factors like light affect how auxin moves within the plant, temperature influences how much is produced, and a lack of water can disrupt hormone balance. When plants cannot effectively regulate auxins, they may not grow well, adapt to changing conditions or produce as much food.  Existing IAA detection methods, such as liquid chromatography, require taking plant samples from the plant – which harms or removes part of it. Conventional methods also measure the effects of IAA rather than detecting it directly, and cannot be used universally across different plant types. In addition, since IAA are small molecules that cannot be easily tracked in real-time, biosensors that contain fluorescent proteins need to be inserted into the plant’s genome to measure auxin, making it emit a fluorescent signal for live imaging. SMART’s newly developed nanosensor enables direct, real-time tracking of auxin levels in living plants with high precision. The sensor uses NIR imaging to monitor IAA fluctuations non-invasively across tissues like leaves, roots and cotyledons, and it is capable of bypassing chlorophyll interference to ensure highly reliable readings even in densely pigmented tissues. The technology does not require genetic modification and can be integrated with existing agricultural systems – offering a scalable precision tool to advance both crop optimisation and fundamental plant physiology research.  By providing real-time, precise measurements of auxin – a hormone central to plant growth and stress response – the sensor empowers farmers with earlier and more accurate insights into plant health. With these insights and comprehensive data, farmers can make smarter, data-driven decisions on irrigation, nutrient delivery and pruning, tailored to the plant’s actual needs – ultimately improving crop growth, boosting stress resilience and increasing yields. “We need new technologies to address the problems of food insecurity and climate change worldwide. Auxin is a central growth signal within living plants, and this work gives us a way to tap it to give new information to farmers and researchers. The applications are many, including early detection of plant stress, allowing for timely interventions to safeguard crops. For urban and indoor farms, where light, water and nutrients are already tightly controlled, this sensor can be a valuable tool in fine-tuning growth conditions with even greater precision to optimise yield and sustainability,” said Prof Michael Strano, Co-Lead Principal Investigator at DiSTAP and Carbon P. Dubbs Professor of Chemical Engineering at MIT, and co-corresponding author of the paper. ]]> https://agrospectrumasia.com/news/160/2935/betterseeds-unlocks-the-full-potential-of-crispr-with-breakthrough-edge-delivery-system.html https://agrospectrumasia.com/news/160/2935/betterseeds-unlocks-the-full-potential-of-crispr-with-breakthrough-edge-delivery-system.html Wed, 21 May 2025 09:55:25 +0530 Effective delivery and function of the gene editing machinery directly within the plant BetterSeeds has achieved a significant breakthrough in plant biotechnology with the completion of its EDGE (Efficient Delivery of Gene Editing) platform. This innovative technology directly addresses a major hurdle hindering the widespread adoption of gene editing technologies like CRISPR: the reliance on inefficient and crop-specific tissue culture methods.  The limitations of tissue culture mean that currently, only a small fraction of commercially important crops (approximately 10) can be efficiently improved using CRISPR. This critical bottleneck was a key discussion point at the recent CROP Innovation and Business conference in Cologne, Germany, which focused on the applications of CRISPR with leading experts and companies highlighting the urgent need for alternative tissue culture free delivery solutions.  While viruses have long been considered a promising delivery vehicle for CRISPR, the large size of the standard CRISPR-Cas9 system has proven to be a significant obstacle. BetterSeeds' EDGE technology overcomes this challenge through the ingenious use of engineered viruses capable of carrying a reengineered, split CRISPR-Cas9. This allows for the effective delivery and function of the gene editing machinery directly within the plant, bypassing the need for tissue culture altogether and resulting in edited progeny.  The successful development of EDGE means that CRISPR could be applied to a far wider range of crops, eliminating a major constraint in agricultural innovation. Furthermore, this direct delivery method significantly reduces the time and resources required for developing gene-edited plants thereby shortening time to market of introducing new improved crops.  "We anticipate that the increasing clarity in CRISPR regulations in Europe and Globally will drive wider adoption of gene editing technology as a standard tool by the seeds industry," commented Ido Margalit, CEO of BetterSeeds. "Our EDGE technology will facilitate this widespread integration, paving the way for the broad and rapid adoption of this powerful technology."  Dr. Tal Sherman, CTO of BetterSeeds, elaborated, "We are already looking ahead with the development of EDGE V.2, which will utilize smaller CRISPR systems. This next generation of EDGE promises to further enhance the efficiency and broaden the applicability of our delivery platform beyond the current capabilities of CRISPR-Cas9."  ]]> https://agrospectrumasia.com/news/160/2833/a-global-assessment-of-plant-genetic-resources-for-food-and-agriculture-is-released-by-the-fao.html https://agrospectrumasia.com/news/160/2833/a-global-assessment-of-plant-genetic-resources-for-food-and-agriculture-is-released-by-the-fao.html Fri, 04 Apr 2025 12:52:42 +0530 Global assessment is based on information provided by 128 countries, four regional centres  and 13 international centres through the FAO World Information and Early Warning System on Plant Genetic Resources (WIEWS) A sustainable cropping system is dependent on Plant genetic resources for food and agriculture (PGRFA) - plants that are currently harvested or have potential to be harvested for food and agriculture. The publication, The Third Report on the State of the World’s Plant Genetic Resources for Food and Agriculture (Third Report), presents the results of a comprehensive assessment of the global status and trends, including progress made and the remaining constraints, regarding the conservation and use of PGRFA since 2011. It documents progress and constraints in the management of PGRFA. The Third Report is part of a series of publications of the results of periodic assessments, which are prepared under the aegis of FAO’s Commission on Genetic Resources for Food and Agriculture. The gaps and needs identified in the past reports have triggered a policy response: the rolling Global Plan of Action for the Conservation and Sustainable Use of Plant Genetic Resources for Food and Agriculture, a set of agreed priorities to guide FAO Members’ work on these resources that underpin agrifood systems. This global assessment is based on information provided by 128 countries, four regional centres  and 13 international centres through the FAO World Information and Early Warning System on Plant Genetic Resources (WIEWS). Overall, over 1 600 experts, including scientists, curators and breeders, contributed to this publication, which addresses the statuses of in situ conservation and on-farm management, ex situ conservation, and sustainable use of PGRFA, and human and institutional capacities. The report shows a complex situation with regard to the global status of plant genetic resources for food and agriculture. Overall progress has been achieved in preserving these resources, by expanding conservation areas in the wild, enlarging collections in genebanks, as well as improving documentation and access to them, and, therefore, enhancing their use in breeding and seed systems. However, progress has been uneven and insufficient across regions and countries. This was due to the challenges faced by national programmes in addressing environmental and social pressures. Additionally, the impressive technological advancements achieved in several fields, especially biology and informatics, have not been adequately harnessed in most countries. The report highlights a worrisome level of threatened diversity of PGRFA. This is particularly the case for two important plant groups, crop wild relatives, which can be a unique source of adaptative traits to environmental stressors, and wild food plants. The latter are often used to complement diets by local communities. Wild food plants also provide opportunities for diversifying cropping systems through their domestication. The replacement of local varieties in cropping systems is also a matter of concern, leading to a decline in on-farm diversity and the loss of associated traditional knowledge. Documentation of valuable information on traits, such as drought tolerance, pest resistance and nutritional content also requires attention. Furthermore, too many genebanks around the world don’t take advantage of existing improved genebank management information systems, which can significantly help in carrying out good curation practices, as well as data analysis and dissemination.  In many countries, there is a need for an effective and harmonized policy framework. Many countries still lack dedicated PGRFA strategies that integrate conservation and sustainable use as a seamless process, from conservation to breeding and seed delivery systems. National PGRFA programmes often lack adequate provisions for skilled human resources and efficient infrastructure. Long-term investments for developing capacity and for raising public awareness on the importance of PGRFA, are also often missing or poorly funded. Weaknesses in collaboration and partnerships within and between national institutions, research centres, networks and international institutions also remain unaddressed in many countries. These issues have to be addressed because the stakes are high. Here, food security and nutrition are at stake. The target audience is broad. They range from researchers to PGRFA practitioners, donors, and policymakers. The information contained in the report is a baseline for future assessments and for monitoring changes in PGRFA diversity and their use. The gaps and needs identified will be used to set priorities for the effective management of these resources. They will also feed into updating the Second Global Plan of Action for PGRFA. ]]> https://agrospectrumasia.com/news/160/2829/twist-bioscience-and-curio-genomics-collaborate-to-accelerate-and-streamline-ngs-adoption-in-agrigenomics.html https://agrospectrumasia.com/news/160/2829/twist-bioscience-and-curio-genomics-collaborate-to-accelerate-and-streamline-ngs-adoption-in-agrigenomics.html Wed, 02 Apr 2025 13:12:42 +0530 Collaboration to enable cost-effective end-to-end genotyping across large animal and plant populations Twist Bioscience Corporation, a core mid-cap growth and value equity company in the life sciences segment of the health care sector, and Curio Genomics, a pioneer in genomics software, announced a collaboration to accelerate the adoption of NGS workflows in agricultural genomics (agrigenomics) by offering Twist’s FlexPrep™ Ultra-High Throughput (UHT) Library Preparation Kit with Curio’s bioinformatics software and data platform. Despite the flexibility and depth of genomic data provided by NGS workflows compared to microarrays, adoption of NGS in agrigenomics has lagged due to the low cost and familiarity of microarray workflows. Pairing the Twist FlexPrep UHT Library Prep Kit and the CURIO™ platform creates a sequencer agnostic end-to-end solution from library prep through data analysis to provide agrigenomics customers with tools that overcome these challenges and simplify NGS adoption. Specifically, the Twist FlexPrep UHT Library Prep Kit provides researchers with a tool to support a streamlined workflow with favorable economics, while scaling up assay throughput to thousands of samples with high flexibility. FlexPrep enables researchers to expand the depth and breadth of their data beyond just SNPs to generate high complexity libraries for low pass whole genome sequencing with high concordance to arrays. The CURIO bioinformatics software and data platform offers all-in-one genotyping, marker discovery and fine mapping in an intuitive interface. Rapidly delivering analysis results due to its uniquely scalable architecture, CURIO allows agrigenomics researchers to quickly interpret NGS data generated with Twist’s FlexPrep UHT Library Prep Kit alongside historical data from microarrays. This enables them to make decisions faster, while maintaining insights even after changing their workflows. “Our FlexPrep UHT Library Prep Kit eliminates many of the traditional barriers that have slowed NGS adoption in agrigenomics – making high throughput genotyping faster, easier, and more accessible than ever,” said Emily M. Leproust, Ph.D., CEO and co-founder of Twist Bioscience. “By collaborating with Curio, we can now pair our FlexPrep UHT Kit with a robust easy-to-use, cost-effective software platform to conduct high-volume data analysis across array and NGS data from any animal or plant species. From library prep to data analytics, we believe this streamlined offering will facilitate a shift from microarray to next-generation sequencing.” “With our CURIO platform, we can provide researchers with a scalable, approachable way to analyze their data across species type and depth of coverage, enabling them to transition quickly from data generation to actionable insights,” said Shawn Quinn, CTO & cofounder of Curio Genomics. “By offering our platform with Twist’s FlexPrep UHT Library Prep Kit technology, we are making it easier for researchers to bridge historical microarray and new NGS data, analyze diverse species, and accelerate breakthroughs in agricultural genomics.” ]]> https://agrospectrumasia.com/news/160/2787/pivot-bio-unveils-proven-g3-a-patent-protected-gene-editing-technology-with-powerful-mechanisms-of-action.html https://agrospectrumasia.com/news/160/2787/pivot-bio-unveils-proven-g3-a-patent-protected-gene-editing-technology-with-powerful-mechanisms-of-action.html Mon, 17 Mar 2025 08:32:37 +0530 PROVEN G3, the third-generation nitrogen solution for corn Pivot Bio, one of the world's leading innovative agtech companies, announced that it has launched a new product in its line of innovative ag solutions for growers in the U.S. Pivot Bio PROVEN® G3 will join the company's notable Pivot Bio PROVEN® 40 nitrogen-fixing solution, which has been successfully used by growers on millions of acres to date. PROVEN G3, the company's third-generation nitrogen solution for corn, will be commercially available in 2026, pending state registrations. This marks a major advancement in nitrogen innovation, as PROVEN G3 is the first PROVEN product with multiple modes of action and significant benefits to American farmers, who work hard to feed, clothe and fuel the world. "Built to enhance our industry-leading and proprietary gene-edited nitrogen-fixing technology, PROVEN G3 adds an exclusive microbe blend that increases nutrient uptake and nitrogen-use efficiency. PROVEN G3 consistently drives improved nitrogen production, seamlessly enhancing farmers' current nitrogen programs and yield potential," said Ryan Van Roekel, Ph.D., commercial agronomy leader for Pivot Bio. "Pivot Bio realizes every farm presents unique challenges, including varying soil types, field conditions and nutrient-management approaches," said Van Roekel. "PROVEN G3 was designed by some of the top scientists and agronomists working side by side with growers to adapt to these differences, allowing farmers to customize timing and placement to maximize efficiency, productivity and profitability across their diverse acres. As a weatherproof and most efficient source of nitrogen per pound, PROVEN G3 seamlessly integrates into current fertility programs." With PROVEN G3, the company will continue its industry-leading research program with notable colleges and universities and will be completing the largest farmer demo in Pivot Bio's history, spanning 300-plus locations, demonstrating the performance and consistency of PROVEN G3 at scale. This research will join recent peer-reviewed research from Wisconsin and Purdue universities, published in Scientific Reports, confirming that Pivot Bio's gene-edited microbes successfully fix nitrogen from the air and deliver it directly to plant roots, even in the presence of synthetic fertilizers. Additionally, a three-year study from the University of Illinois further validates Pivot Bio's products as a reliable third source of nitrogen for corn. The research demonstrates that crops utilizing Pivot Bio's gene-edited technology absorb more nitrogen —including nitrogen derived from the atmosphere — helping farmers implement multi-mode nitrogen plans for improved efficiency and productivity. In addition to this latest advancement for corn, the company also recently announced a new product launch for cotton — a first for the cotton market — with CERT-N™. ]]> https://agrospectrumasia.com/news/160/2768/syngenta-acquires-novartis-assets-to-strengthen-global-leadership-in-agricultural-biologicals.html https://agrospectrumasia.com/news/160/2768/syngenta-acquires-novartis-assets-to-strengthen-global-leadership-in-agricultural-biologicals.html Wed, 05 Mar 2025 13:13:58 +0530 Syngenta will lease Novartis' fermentation pilot plant and science laboratories in Basel, Switzerland As a leading developer of next-generation biologicals products for agricultural use, Syngenta is expanding its biologicals research efforts and development capabilities significantly.  Syngenta has acquired Novartis' repository of natural compounds and genetic strains for use in agriculture, while Novartis retains exclusive rights in the pharmaceutical repository. Novartis' Natural Products and Biomolecular Chemistry team will also be transferred to Syngenta as part of the transaction.  Syngenta gains access to an important source of new agricultural leads due to this move, as well as integrated capabilities in bioengineering, data science, fermentation, downstream processing, and analytics. Syngenta will also lease Novartis' fermentation pilot plant and science laboratories in Basel, Switzerland, as part of the agreement, which is expected to close on June 1st this year. Since 2019, Syngenta and Novartis have collaborated successfully on research projects. This acquisition follows Syngenta's opening of a biologicals production facility in Orangeburg, South Carolina. The facility is Syngenta’s first world-scale production facility for agricultural biologicals in the US and will support growing demand for science-based and novel biological solutions in both the North and Latin American markets.  ]]> https://agrospectrumasia.com/news/160/2690/ers-genomics-launches-express-license-platform-to-democratise-access-to-crispr-cas9.html https://agrospectrumasia.com/news/160/2690/ers-genomics-launches-express-license-platform-to-democratise-access-to-crispr-cas9.html Fri, 24 Jan 2025 12:03:29 +0530 The new Express License service removes barriers to accessing this transformative gene editing technology for startups ERS Genomics (‘ERS’), the CRISPR licensing company, announces the launch of its Express License platform to provide small research enterprises and startups with affordable and rapid access to the world’s largest foundational and essential CRISPR/Cas9 patent portfolio.   The goal of ERS Genomics is to make CRISPR/Cas9 technology accessible and responsible. In order to support small and early-stage organizations, ERS now offers a non-exclusive Express License for internal research use, specifically designed for companies with fewer than 15 employees and less than $10 million in funding. This streamlined licensing option enables a broader spectrum of innovators to access CRISPR/Cas9 intellectual property in a cost-effective and efficient way, fostering groundbreaking research and development in areas such as synthetic biology, disease modelling, gene editing, high-throughput screening and functional genomics.  Prof Emmanuelle Charpentier, Nobel Prize Winner & ERS Genomics Co-Founder, said, “Our new express license platform represents an exciting step forward in democratizing access to the foundational CRISPR/Cas9 IP. By simplifying the process and making it more affordable, we’re empowering startups and small companies to innovate and bring groundbreaking solutions to the forefront of science and industry”.  Candidate organizations can secure an Express License by demonstrating their eligibility through scientific credentials such as research publications, academic collaborations, or technology-related patents. Interested organisations can verify their eligibility and submit their application through ERS’ online platform.  John E Milad, CEO, ERS Genomics, said, “Our new Express License platform streamlines and accelerates access to CRISPR/Cas9, making it more affordable than ever for smaller organizations. This initiative represents a major step toward democratizing this Nobel Prize-winning technology, empowering companies of all sizes to harness its transformative potential. We are proud to provide the industry’s most accessible and cost-effective solution for accessing foundational CRISPR/Cas9 intellectual property, honouring Prof. Charpentier’s enduring spirit of innovation.”  ]]> https://agrospectrumasia.com/news/160/2679/origin-agritech-embarks-rd-partnership-to-advance-agri-genomics-potentials.html https://agrospectrumasia.com/news/160/2679/origin-agritech-embarks-rd-partnership-to-advance-agri-genomics-potentials.html Mon, 20 Jan 2025 11:30:14 +0530 Three-way partnership with China Agricultural University and the Beijing Academy of Agricultural and Forestry Sciences to scale corn genetic platform An international seed industry technology company, Origin Agritech Ltd., announced significant advances in its biotechnology breeding program and a groundbreaking partnership during the Sanya International Seed Industry Scientist Conference and 2025 International Seed Industry Technology Expo. Origin announced a three-way partnership with China Agricultural University, the world's top agricultural science university, and the Beijing Academy of Agricultural and Forestry Sciences. This partnership establishes a comprehensive research and development initiative focused on corn "smart plant type" improvement and innovative variety development. Corn Seed Forum, Origin CEO Yan Weibin spoke about the Company's strategic vision and latest achievements, saying "Building long-term strengths and becoming a high-tech seed service company led by biotechnology is Origin's first consideration. By uniting the strengths of these prestigious institutions with Origin Agritech's biotechnology capabilities, we are creating a powerhouse for agricultural innovation. This partnership represents a collaboration that will reshape the future of corn development and smart plant technology." Some of the highlights are, Establishment of four provincial and ministerial R&D platforms with research bases in Beijing, Hainan, and Henan Development of a large-scale corn genetic platform for efficient functional gene exploration Creation of the world's first corn haploid induction line Hi3 gene editing technology system in collaboration with "Science Exploration Award" winner Professor Tian Feng Accumulation of nearly 300,000 corn germplasm resources Authorization for multiple gene editing traits, including leaf angle, plant height, and rust resistance Obtaining the second-generation BT and GT GMO corn BBL2-2 biosafety certificate in May 2024 Establishing the "Origin Marker Biological Breeding Service Consortium" with China Golden Marker Biotechnology Co., Ltd. and launching four comprehensive biotechnology services: BBL2-2 transgenic applications, molecular marker and variety improvement, gene editing trait improvement, and corn mutant library applications "China's seed industry is at a crucial juncture in biotechnology breeding," added Mr. Yan. "Origin is committed to continuing our substantial R&D investments and providing leading biotechnology services for the seed industry while embracing digital and information technologies to enable multi-dimensional industrial development." ]]> https://agrospectrumasia.com/news/160/2589/realseq-biosciences-announces-launch-of-ribomarker-rna-fragmentomics-technology.html https://agrospectrumasia.com/news/160/2589/realseq-biosciences-announces-launch-of-ribomarker-rna-fragmentomics-technology.html Fri, 22 Nov 2024 10:33:25 +0530 Next-Generation RNA Detection Solution for Comprehensive Transcriptome Profiling even for agri biotechnology and lab cultures RealSeq Biosciences is proud to introduce the RiboMarker® RNA Fragmentomics Library Preparation Kit, an innovative solution for all-inclusive RNA detection. RiboMarker enables comprehensive transcript and RNA fragment profiling in a single reaction, ensuring accurate and reliable results across diverse sample types. With RiboMarker®, researchers can achieve unparalleled RNA detection, capturing:• Small RNAs such as miRNAs and siRNAs.• RNA fragments, including long non-coding RNA (lncRNA), messenger RNA (mRNA), and transfer RNA-derived fragments (tRFs/tDRs).• Select RNA modifications, offering additional layers of transcriptomic insights. The kit is optimized to work seamlessly with RNA from a wide variety of sources, including biofluids, tissues, and environmental samples. Its low RNA input requirement and compatibility with samples of low RIN (RNA integrity number) values ensure reliable performance even with challenging samples. “RiboMarker® represents a leap forward in RNA research,” said Sergio Barberan-Soler, Ph.D., CEO, RealSeq Biosciences. “Enabling comprehensive profiling in a single reaction, empowers researchers to uncover deeper insights into transcriptomic landscapes with unmatched simplicity and reliability.” Key Benefits:• All-inclusive profiling: Detects small RNAs, diverse RNA fragments, and select modifications.• Bias free library construction: Uncovers novel RNAs/RNA fragments.• Versatility: Compatible with a wide range of sample types.• Sample quality-independent: Effective even with low RIN (RNA Integrity Number) values, ensuring reliable results.• High sensitivity: Delivers robust results with low RNA input ]]> https://agrospectrumasia.com/news/160/2586/leafworks-introduces-cannabis-sterility-rna-spray-non-gmo-for-better-hybrid-seed-production.html https://agrospectrumasia.com/news/160/2586/leafworks-introduces-cannabis-sterility-rna-spray-non-gmo-for-better-hybrid-seed-production.html Fri, 22 Nov 2024 09:58:08 +0530 Plant genomics leader LeafWorks unveils Ag-Tech breakthrough that combats Cannabis Hermaphroditism, offers affordable Male-Sterile line capability for growers LeafWorks, a trailblazing female-led plant genetics and testing company specializing in botanical identification for cannabis and hemp, has introduced a cutting-edge non-GMO classified RNA spray designed to control male sterility genes. This technology offers wide-ranging benefits, including mitigating the risk of cross-pollination and hermaphroditism and producing male-sterile plants for efficient hybrid seed production. The company has also submitted the technology prototype as a provisional patent application with the law offices of Fish and Richardson LLP to solidify patent protection on the use of male-sterile genes for commercial applications. Hermaphroditism is one of the most difficult agricultural problems in cannabis and hemp. Hermaphroditic plants, which develop both male and female flowers, are common in commercial cultivation and can significantly harm crop success and product quality by causing unwanted pollination. Pollination significantly lowers cannabinoid and terpene production, shrinks flower size and number, and turns valuable flower into low-quality seeded product. To solve this problem, LeafWorks developed a prototype spray that allows farmers to induce pollen sterility should male flowers form. This proprietary RNA-based spray technology will benefit the entire industry. Although difficult to capture, RNA forms naturally and is all around us. It is biodegradable and highly specific to its target—in this case, the male sterility genes in cannabis. Male sterility, a condition in which plants' male reproductive organs do not produce viable pollen, is a crucial trait in crop breeding programs because it enables the development of hybrid seeds with superior yield, quality and uniformity compared to conventionally bred cultivars. LeafWorks’ technology can also be applied to breeders’ programs that want to make 100% male-sterile seed lines for hybrid-line production. With this technology, LeafWorks is leading the way to assist commercial cannabis and hemp breeders to produce hybrid seeds at scale. Using sprays to alter the sex in cannabis plants is not a new technique. Breeders commonly use chemical sprays to create feminized seeds by activating the male flower genes. However, until now, no products have been able to successfully deactivate these male genes. ]]> https://agrospectrumasia.com/news/160/2584/breakthrough-research-demonstrates-how-gene-edited-microbes-offer-a-new-source-of-nitrogen-to-farmers.html https://agrospectrumasia.com/news/160/2584/breakthrough-research-demonstrates-how-gene-edited-microbes-offer-a-new-source-of-nitrogen-to-farmers.html Mon, 18 Nov 2024 11:42:29 +0530 Findings are the first, peer-reviewed evidence of gene-edited microbes supplying a material proportion of corn farmers' nitrogen in commercial production Peer-reviewed research published in Scientific Reports describes a new technology that could revolutionize a century-old approach to providing nitrogen to crops. The study, a collaboration of researchers from the University of Wisconsin-Madison, Purdue University, and Pivot Bio, a leading sustainable agriculture company, presented first-of-its-kind evidence showing how gene-editing enhances microbes' ability to fix atmospheric nitrogen and transfer it to cereal crops. Using isotopically labeled nitrogen, researchers traced nitrogen in the air to chlorophyll of corn leaves, providing evidence that it was fixed from the air by the gene-edited microbes. Field studies also showed that these microbes could fix and supply nitrogen comparable to up to 40 pounds of synthetic nitrogen fertilizer per acre with similar yields. Improving the effectiveness of nitrogen fertilizers has been a long-standing challenge. "The core issue," explains Dr. Bruno Basso, a professor of environmental science at Michigan State University, who was not involved in the study, "is that the soil-plant-atmosphere system is extremely complex." Unpredictable weather makes it difficult to match nutrient supply to plants' demand, and to determine precisely how much nitrogen a crop will require and whether the nutrient will remain in the soil. The on-fields research strives to devise solutions to use nitrogen fertilizer more efficiently to increase profit and reduce environmental impact, such as nutrient losses to groundwater and greenhouse gas emissions to the atmosphere. Diazotrophs, special types of bacteria that occur in nature, have a unique ability to turn atmospheric nitrogen gas into ammonium, the building block of amino acids and proteins. This process, commonly known as biological nitrogen fixation (BNF), was the main form of nitrogen nutrition for crops for thousands of years before synthetic nitrogen fertilizer was invented. Researchers at Pivot Bio developed gene-edited microbes using non-transgenic methods to enable diazotrophs to continue providing nitrogen to the crop even under high nitrogen conditions. "With the gene edits, we blind microbes to the presence of nitrogen in their surroundings, so they continue to fix ammonium, delivering it directly on the root system," said Dr. Karsten Temme, chief innovation officer and co-founder at Pivot Bio and a co-author of the paper. "We also introduced other edits to ensure the bacteria can transfer the fixed nitrogen to the crop instead of keeping it for itself." The paper presents evidence of this process happening in the lab and field test plots. It is also the first peer-reviewed paper covering PROVEN® 40, Pivot Bio's second-generation commercial product for corn containing gene-edited nitrogen-fixing microbes. In the field, the researchers used a variety of isotopic experiments to again demonstrate nitrogen fixation, this time under real-world conditions, and quantify the nitrogen levels in the plant. They also collected hundreds of samples from farmers who reduced nitrogen fertilizer rate by 35 to 40 pounds of nitrogen per acre, replacing it with Pivot Bio's PROVEN 40. On average, researchers found plants treated with PROVEN 40 had higher nitrogen levels early in the season and no negative impacts on yield, even though they had received less synthetic fertilizer. ]]> https://agrospectrumasia.com/news/160/2559/realseq-biosciences-announces-strategic-service-agreement-with-tropic-to-advance-agricultural-genomics.html https://agrospectrumasia.com/news/160/2559/realseq-biosciences-announces-strategic-service-agreement-with-tropic-to-advance-agricultural-genomics.html Fri, 08 Nov 2024 11:58:36 +0530 Advanced RNA sequencing technologies to support Tropic’s efforts in developing novel solutions for crop improvement and plant health RealSeq Biosciences, a leader in next-generation RNA-fragmentomics and liquid biopsy diagnostics, announced a strategic service agreement with Tropic, an innovative biotechnology company focused on enhancing agricultural productivity and sustainability. The agreement aims to leverage RealSeq’s advanced RNA sequencing technologies to support Tropic’s efforts in developing novel solutions for crop improvement and plant health. “This collaboration with Tropic aligns with our mission to drive innovation in genomics and diagnostics through precision RNA analysis,” said Dr. Barberan-Soler, CEO of RealSeq Biosciences. “By applying our unique RNA-seq technology and services to plant biology, we can support Tropic’s efforts to accelerate breakthroughs that address critical agricultural challenges, including food security and crop resilience.” The partnership exemplifies both companies’ commitment to sustainability and the advancement of agricultural science. Tropic, known for its pioneering work in gene editing and plant genetics, will benefit from RealSeq’s expertise in high-sensitivity RNA analysis, which will enhance their ability to develop robust and sustainable agricultural solutions that support the future of global food systems. Dr. Anna Brestovitsky, Senior Bioinformatician at Tropic stated “RealSeq’s innovative RNA sequencing technology further supports our programs to deliver high-performance crops tailored to meet the needs of farmers, consumers, and the environment.” Through this service agreement, RealSeq and Tropic aim to advance research that has the potential to transform the agricultural industry. Both companies anticipate that this collaboration will contribute to further understanding plant gene expression, supporting the development of resilient crop varieties and improved agricultural outcomes. ]]> https://agrospectrumasia.com/news/160/2553/twist-bioscience-launches-flexprep-ultra-high-throughput-library-preparation-kit-for-applications-in-agrigenomics.html https://agrospectrumasia.com/news/160/2553/twist-bioscience-launches-flexprep-ultra-high-throughput-library-preparation-kit-for-applications-in-agrigenomics.html Mon, 04 Nov 2024 11:01:19 +0530 Kit enable throughput at a low cost, and accelerate the adoption of NGS by microarray users in population and agricultural genomics Twist Bioscience Corporation, the providers of high-quality synthetic DNA using its silicon platform, announced the launch of the FlexPrep™ Ultra-High Throughput Library Preparation Kit, designed with a proprietary Twist-developed enzyme to enable throughput at a low cost, and accelerate the adoption of NGS by microarray users in population and agricultural genomics (agrigenomics). The Twist FlexPrep UHT Library Prep kit improves upon standard enzymatic fragmentation library preparation methods with the introduction of a novel Normalization by Ligation™ (NBL) technology, which eliminates the need for time-consuming upfront sample quantitation, and enables sample pooling and multiplexing early in the workflow. This built-in normalization and multiplexing capability simplifies how researchers prepare samples with variable mass at scale, where efficiency in workflow and per-sample cost is critical for NGS implementation1. “Legacy methods of profiling very large numbers of samples for agrigenomics to genotype cows, pigs and other animals as well as for population genomics studies, have not kept pace with evolving NGS methods and are tied to a fixed set of markers. Innovative next-generation sequencing methods provide far superior data to microarray technology, with the Twist FlexPrep UHT Kit surpassing even the most advanced NGS methods to maximize throughput and minimize cost,” said Emily M. Leproust, Ph.D., CEO and co-founder of Twist Bioscience. “When conducting large scale experiments and running multiple samples in parallel, researchers must ensure that there is equivalent mass of each sample included, and this ‘normalization’ process takes time, energy and effort. Using a novel technology, the FlexPrep UHT Kit self-normalizes, eliminating a critical time-consuming step while at the same time enabling high throughput, streamlining workflows and enabling scalability and customization. In addition to the differentiating capabilities of the kit, we’re collaborating with Gencove to offer a complementary genomic analysis solution to our customers.” With the Twist FlexPrep UHT kit, researchers can run up to 1,152 samples in a single 96-well plate sequencing run, which can save researchers time and costs. And compared to processing samples individually, FlexPrep reduces consumables used by a factor of 12 as well as reduces the number of pipette tips from over 17,000 used in a standard kit to under 4,000 with the FlexPrep UHT kit. Designed for automation and to enable scientists to confidently multiplex, the NBL technology simultaneously tags samples with a unique barcode to enable early pooling of up to 12 separate samples in one reaction, delivering 12x improvement on consumables and reagent efficiency. Utilizing this tagging method together with Twist’s 3,000 unique dual indexes (UDIs) in the FlexPrep workflow, research sample sizes are not constrained by multiplexing capacity or throughput. The FlexPrep UHT kit can also be paired with Twist’s custom target enrichment panels for tunable and uniform coverage of genomic regions of interest. Twist is also collaborating with Gencove, a leader in low-pass genome sequencing methods and analysis software, to offer analysis solutions to customers using FlexPrep UHT to understand their data and deliver fast, cost-effective and accurate genotyping results. Gencove works in a partnership model to design custom assays, optimize sequencing solutions, and build analysis pipelines to effectively bridge the gap from samples to solutions in the fields of agriculture and human health. Joe Pickrell, Co-founder and CEO, Gencove sai “To meet the growing demand for large-scale genomic information, we’ve developed an end-to-end software solution that we’re pleased to offer as an additional tool for Twist’s customers using FlexPrep UHT and embracing NGS technology to expand their high throughput and genomic analysis capabilities beyond what is offered by microarrays.” The Twist Flex Prep™ UHT Kit workflow is purpose-built to streamline and massively scale up Twist’s established enzymatic fragmentation methods. The Normalization by Ligation™ (NBL) technology eliminates the need to measure the mass of each DNA sample and to perform labor-intensive concentration adjustment prior to library preparation, saving significant cost per sample. Following fragmentation and adapter ligation of each sample in a plate, up to 12 samples are pooled together in a single tube. This pooling strategy results in a meaningful reduction in both volumes and costs of reagents required for subsequent bead purification and amplification steps. Libraries prepared from this kit can be leveraged to perform whole genome or targeted sequencing with the use of target enrichment panels. All plate and tube formats are optimized to ensure compatibility with key automation systems, a critical consideration for labs looking to streamline workflows and reduce hands-on time ]]> https://agrospectrumasia.com/news/160/2534/usda-approves-the-first-genetically-modified-pea-from-moolec.html https://agrospectrumasia.com/news/160/2534/usda-approves-the-first-genetically-modified-pea-from-moolec.html Mon, 21 Oct 2024 11:26:24 +0530 Moolec's genetically engineered peas produce high yields of bovine myoglobin, a protein that boosts iron content, making it an ideal alternative for consumers seeking plant-based sources of iron Moolec Science SA, a leader in Molecular Farming technology, announced today that the U.S. Department of Agriculture's ("USDA") Animal and Plant Health Inspection Service ("APHIS") has completed its Regulatory Status Review ("RSR") for the Company's genetically engineered ("GE") peas which produce iron through bovine meat proteins. This is the third regulatory clearance from USDA-APHIS achieved by Moolec in an 18-month window, alongside its genetically engineered safflower and soybean for GLASO™ and Piggy Sooy™ products, respectively.  Moolec's genetically engineered peas produce high yields of bovine myoglobin, a protein that boosts iron content, making it an ideal alternative for consumers seeking plant-based sources of iron. This product has the potential to revolutionize both the food ingredient market and the $65 billion pea industry by offering a nutritious, iron-rich alternative to traditional meat products. Amit Dhingra, Chief Science Officer for the Company, stated, "The USDA-APHIS Regulatory Status Review for pea marks a significant milestone for Moolec. As the first review for GE pea, it represents a historic development. It validates Moolec's strategic approach and exemplifies our commitment advancing sustainable food production through science and innovation. This approval is a critical step toward enhancing global food supply and meeting the growing demand for innovative, nutritious food solutions for the world." This approval not only showcases Moolec's innovation in Molecular Farming but also highlights the company's commitment to meeting the highest regulatory and safety standards. Moolec has also developed an Identity Preservation Program to ensure sustainable farming practices, promote stewardship for its crops and product quality for partners, clients and consumers alike. According to USDA-APHIS regulation found at 7 CFR part 340, developers may submit a request for a RSR when they believe a GE plant is not subject to the regulation. APHIS reviews the GE plant and considers whether it might pose an increased plant pest risk compared to its non-GE comparator. If APHIS does not identify a greater pest risk relative to the comparator, the GE plant is not subject to this regulation. Regulation 7 CFR part 340 governs the importation, interstate movement, and the environmental release of certain organisms that have been modified or produced by genetic engineering. ]]> https://agrospectrumasia.com/news/160/2511/usda-invests-9-m-in-10-organizations-nationwide-to-support-urban-agriculture-and-innovative-production.html https://agrospectrumasia.com/news/160/2511/usda-invests-9-m-in-10-organizations-nationwide-to-support-urban-agriculture-and-innovative-production.html Thu, 10 Oct 2024 15:35:29 +0530 This partnership with T.I.M..E is part of a $40 million investment made possible by President Biden’s American Rescue Plan The U.S. Department of Agriculture (USDA) is investing nearly $9 million in funding to local organizations to provide outreach, education and technical assistance to urban agricultural producers in ten U.S. cities. USDA’s Farm Service Agency (FSA) is partnering with To Improve Mississippi Economics (T.I.M.E.) to administer an urban farm outreach program offering subawards to community groups that work with producers in cities where FSA has established Urban County Committees.  “Working with T.I.M.E. to fund organizations providing on-the-ground support to urban producers is an important step in fulfilling our commitment to the health and sustainability of our communities and building resilient local food systems,” said FSA Administrator Zach Ducheneaux, “Through T.I.M.E.’s expanded outreach efforts, made possible through USDA funding, we can now connect producers to our Urban USDA Service Centers and broaden the impact of our Urban County Committees and the federal farm programs we offer.” The T.I.M.E. partnership is part of a broad USDA investment in urban agriculture and innovative production. Other efforts include: Establishing 17 new Urban Service Centers staffed by FSA and Natural Resources Conservation Service (NRCS) employees to better serve urban producers. Organizing 27 FSA urban county committees to make important decisions about how FSA farm programs are administered locally. Urban farmers who participate in USDA programs in the areas selected are encouraged to participate by nominating and voting for county committee members. Investing $5.2 million for Urban Agriculture and Innovative Production (UAIP) competitive grants in fiscal year 2024 Administering the People’s Garden Initiative, which celebrates collaborative gardens across the country and worldwide that benefit their communities by growing fresh, healthy food and supporting resilient, local food systems using sustainable practices and providing greenspace.      Creating and managing a Federal Advisory Committee for Urban Agriculture and Innovative Production to advise the Secretary on the development of policies and outreach relating to urban agriculture.       Providing cooperative agreements that develop and test strategies for planning and implementing municipal compost plans and food waste reduction plans.   Investing in risk management education to broaden the reach of crop insurance among urban and innovative producers.     Partnering with the Vermont Law and Graduate School Center for Agriculture and Food Systems to develop resources that help growers understand and work through local policies.  ]]> https://agrospectrumasia.com/news/160/2503/acreshield-developing-an-innovative-ai-solution-to-solve-the-yield-gap-problem.html https://agrospectrumasia.com/news/160/2503/acreshield-developing-an-innovative-ai-solution-to-solve-the-yield-gap-problem.html Wed, 09 Oct 2024 11:11:19 +0530 The AI-based seed selection program provides farmers with accurate yield predictions for crop protection through smarter seed selectionAcreShield, the developer of Yield Optimizer™, completed its Series A funding of more than $2.5 million. Yield Optimizer is the first commercially accepted proven artificial intelligence (AI) seed selection program for yield prediction that uses independent seed performance data and provides farmers with guaranteed ROI performance. The board of directors authorized Series A for an additional $2 million. Kaylee Williams, investment director of InnoVenture Iowa, a co-investment fund that supports world-changing technologies created in Iowa said “We saw the potential for this AI technology to disrupt a billion-dollar market in a key industry – agriculture. Every row crop farmer faces the Yield Gap problem. AcreShield brings a truly innovative solution to solve the Yield Gap and, by doing so, is creating a 180-million-acre opportunity in the U.S. alone. This is something the industry has never seen before.” Scott Stewart is president of Vertical Ventures Inc., which invests in companies leveraging technologies such as generative AI and machine learning. He said, “AcreShield fits the firm’s investment thesis as its proprietary seed trial data and model give farmers the ability for a smarter seed selection.” It also caught his team’s attention, as seed selection is paramount to a successful farming operation. Stewart added, “We chose to become the lead investor in AcreShield Series A funding for three main reasons. First, AcreShield’s AI Ag Tech platform is up and running with a distributor network in place and with paying customers. It has demonstrated revenue success and is on track for rapid growth. Second, because of its smarter seed selection model and the proprietary data set used, they can offer farmers a performance guarantee. We haven’t seen anything like this before in the AI market. Lastly, investors always have a foundational requirement in any investment – the team. The AcreShield team has proven to be consistently successful. The entire package complements our AI investment portfolio.” Billy Rose, AcreShield CEO, concurred, saying, “The Yield Gap is a serious farmer challenge, which is why we created and built AcreShield to solve this billion-dollar opportunity with AI-powered smarter seed selection for greater yields. We do this by managing our own independent seed trials, which provide unbiased data sets that feed our AI Yield Optimizer. The net result is that farmers have better yield and financial performance, which is so needed with today's low commodity prices. We’re solving a large farmer problem – the 'Yield Gap,' by demystifying smarter seed selection with financial protection.” ]]> https://agrospectrumasia.com/news/160/2481/zoetis-and-danone-partners-to-pioneer-sustainable-innovation-in-dairy-farming-harnessing-the-power-of-genomics.html https://agrospectrumasia.com/news/160/2481/zoetis-and-danone-partners-to-pioneer-sustainable-innovation-in-dairy-farming-harnessing-the-power-of-genomics.html Mon, 30 Sep 2024 11:15:05 +0530 The partnership aspires to positively impact the environment, increase cow longevity, improve farm resilience Zoetis and Danone recently announced a joint business development plan to drive sustainable practices on today’s dairy farms through the power of genetics for healthier cows. Combining Danone’s commitment to environmental stewardship with Zoetis’ expertise in animal genetics, the partnership aims to innovate the dairy industry’s approach to breeding for sustainability. The partnership aspires to positively impact the environment, increase cow longevity, improve farm resilience, and meet the increasing consumer demand for sustainably sourced dairy products. Visit ClarifidePlus.com to learn more about Zoetis' comprehensive portfolio of dairy genetic solutions. The plan between the two companies is intended to enable Danone to leverage Zoetis’ cutting-edge genetic technologies globally. The focus is on integrating sustainable practices into dairy genetics and selection, emphasizing animal well-being, reducing environmental impact, and promoting long-term resilience in dairy farming. “Collaborative partnerships allow us to harmonize genetic innovation with sustainable practices. Through our partnership with Danone, we intend to leverage our respective expertise to set new benchmarks for healthier herds that contribute to a sustainable future for the dairy industry,” said Wafaa Mamilli, EVP, Chief Digital & Technology Officer, and Group President for China, Brazil, and Precision Animal Health at Zoetis. As part of its commitment to equip dairy producers with innovative solutions to help them meet their sustainability goals, Zoetis’ genetic testing solutions and expertise provide the ability to predict an animal’s susceptibility to costly diseases and potential to remain healthy and productive over its lifetime - aligning with Danone’s ambition to support dairy production that prioritizes environmental resiliency. “We really look forward to embarking with Zoetis on this journey. Together, we are committed to utilizing genomic testing as an important tool for incorporating sustainability at its core. This partnership aligns with our vision of creating positive change throughout the dairy value chain,” said Jean-Yves Krummenacher, Chief Procurement Officer at Danone. Zoetis became a member of Danone’s global Partner for Growth program in 2023 as the preferred provider for genetic testing on dairy farms, specifically leveraging the Dairy Wellness Profit Index® (DWP$®) from CLARIFIDE® Plus. Only available through CLARIFIDE Plus, DWP$ is a multi-trait animal ranking selection index that reveals the value of critical wellness traits, including cow and calf wellness, production, fertility, functional type, longevity, livability, calving ability and milk quality traits, plus polled test results.  ]]> https://agrospectrumasia.com/news/160/2459/cropx-acquires-engeniousag-for-breakthrough-nitrogen-sensing-technology.html https://agrospectrumasia.com/news/160/2459/cropx-acquires-engeniousag-for-breakthrough-nitrogen-sensing-technology.html Fri, 20 Sep 2024 11:14:15 +0530 EGA brings patented technology for plant, water, and soil nitrogen monitoring CropX, a leader in digital agronomic solutions, announces the acquisition of EnGeniousAg, a startup focused on advanced nitrogen sensing applications for agriculture. EnGeniousAg developed an innovative nitrogen sensing technology with the potential to transform nitrogen management by offering farmers new precision tools to optimize nitrogen fertilizer application and minimize environmental impacts.  EnGeniousAg’s patented technology provides users with near-instantaneous, in-field nitrogen measurements. This data can inform nitrogen fertilizer applications to ensure plants have the proper levels for maximizing profitability, sustainability and crop performance during various growth phases. Specifically, EnGeniousAg’s technical breakthroughs greatly extend the range of ion-specific electrode sensing in precision agriculture. The company’s patented technology permits in-situ monitoring of nitrogen in plant tissue, drainage and irrigation waters, and soil. CropX will integrate EnGeniousAg’s technology into its agronomic farm management system, enhancing its capabilities in agricultural nutrient management.   Precision nitrogen fertilizer management is a critical challenge in modern agriculture. Nitrogen fertilizer represents one of the largest crop input costs in agriculture worldwide. Inefficient nitrogen usage costs farmers billions of dollars each year while substantially increasing greenhouse gas emissions and nitrate loading to watersheds and aquifers.   EnGeniousAg’s technology will offer significant cost-savings and operational efficiencies for farmers and agribusinesses on the CropX platform. By allowing simple and effective in-field nitrogen measurements coupled to data-driven agronomic recommendations, CropX’s integrated system of sensors and analytics will provide a powerful and practical new method to boost crop nitrogen use efficiency.   ″Acquiring this nitrogen sensor technology underscores CropX’s commitment to providing farmers with one-stop-shop agronomic solutions,″ said Tomer Tzach, CEO of CropX. ″Nitrogen management is a critical, unsolved challenge of modern farming. We are eager to provide a solution with such transformative potential. In our global search for synergistic technologies in the nutrient management space, EnGeniousAg stood out with high-potential technology that is ideally suited to our mission.″   ]]> https://agrospectrumasia.com/news/160/2457/corteva-pairwise-to-accelerate-gene-editing-to-advance-climate-resilience-in-agriculture.html https://agrospectrumasia.com/news/160/2457/corteva-pairwise-to-accelerate-gene-editing-to-advance-climate-resilience-in-agriculture.html Thu, 19 Sep 2024 08:56:45 +0530 Corteva to invest $25 million to acquire equity stake in gene editing innovator, Pairwise Corteva, Inc. , a global leader in agricultural technology and Pairwise, a technology company pioneering the application of gene editing in food and agriculture have collaborated to accelerate the delivery of advanced gene editing solutions to farmers. The initiative will benefit both the environment and everyday consumers. With gene editing, growers can make precise changes to a plant's DNA, able to keep pace with climate change's challenges to food production. Anchoring the collaboration is Corteva's $25 million equity investment in Pairwise, made under the umbrella of Corteva Catalyst, the company's new investment and partnership platform focused on accessing agricultural innovation to drive value creation. The investment aims to help expand the reach and benefits of gene editing to a wide variety of staple and specialty crops. In addition, Corteva and Pairwise have formed a joint venture to accelerate and expand the delivery of advanced gene edited technologies aimed at increasing crop yield for food, fuel and fiber production, despite increasing climate change. The joint venture, which spans five years, will leverage both companies' advanced gene editing capabilities to accelerate the delivery of gene edited products by generating and evaluating unique gene edits across multiple traits in a range of crops. Building on Corteva's longstanding leadership in plant breeding and genetics, the companies will collaborate on the development and deployment of gene edited products that are more resilient to extreme weather events and climate change. This is the first joint venture and major equity investment in gene editing made by Corteva Catalyst, the company's new investment and partnership platform. The investment reflects Corteva's nearly century-long track record (through its Pioneer brand) of championing innovation through partnerships, including with the global scientific community. Tom Adams, Pairwise CEO and co-founder. "Through our Fulcrum™ Platform, we're proud to be at the helm of applying this transformative technology in agriculture and, alongside partners like Corteva, accelerate the realization of these benefits across global stakeholders." Pairwise is a leader in using gene editing to make differentiated crops. Last year, the company launched the first CRISPR food in North America, and has multiple products in development across significant crops, including corn, soy, wheat, canola, blackberries, and more. ]]> https://agrospectrumasia.com/news/160/2443/worlds-largest-premium-cannabis-clone-nursery-launched-by-iwantclones-com.html https://agrospectrumasia.com/news/160/2443/worlds-largest-premium-cannabis-clone-nursery-launched-by-iwantclones-com.html Fri, 13 Sep 2024 01:45:31 +0530 Spearheads cannabis clone market by expanding genetic strains SeedsHereNow.com, the premier cannabis seed bank in the United States, has launched IWantClones.com, a groundbreaking premium cannabis clone nursery offering the largest selection of clones in the world. With more than 200 current strains and plans to expand to 300 selections, IWantClones.com is set to revolutionize the cannabis clone market. IWantClones.com is powered by SeedsHereNow.com, a trusted name in cannabis genetics since 2010 and the longest-running seed bank in the United States. By leveraging its extensive network of breeders and expertise, IWantClones.com delivers unparalleled quality and variety to cannabis enthusiasts and industry professionals alike. “We are thrilled to introduce IWantClones.com to the cannabis community,” said James Bean, founder of SeedsHereNow.com. “As passionate advocates for both hobby growers and commercial cultivators, we understand the critical importance of reliable genetics. IWantClones.com embodies these values, offering the widest selection of premium clones while ensuring a seamless growing experience for our customers.“ The cannabis clone market is experiencing significant growth, driven by an increasing demand for high-quality clones among both hobbyists and professionals. IWantClones.com meets this demand by providing a diverse array of unique and sought-after strains, ensuring that growers have access to the best genetics available. An 2018 Farm Bill, IWantClones.com has enabled legal shipping clones to all 50 states. This pivotal legislation allows for safe and discreet shipping of products containing less than 0.3 percent THC, making it easier for cannabis professionals to access top-tier clones from anywhere in the country. “We are excited to bring our expertise in cannabis genetics to the clone market. By combining our extensive strain library with our unwavering commitment to quality and customer satisfaction, IWantClones.com is poised to become the go-to destination for cannabis enthusiasts and professionals seeking the best possible growing experience“ added Bean. ]]> https://agrospectrumasia.com/news/160/2417/bioceres-crop-solutions-secures-approval-to-cultivate-drought-tolerant-hb4-wheat.html https://agrospectrumasia.com/news/160/2417/bioceres-crop-solutions-secures-approval-to-cultivate-drought-tolerant-hb4-wheat.html Fri, 30 Aug 2024 11:17:42 +0530 Bioceres Crop Solutions Corp. announced that the United States Department of Agriculture (USDA) has favorably concluded its Regulatory Status Review (RSR) for HB4 wheat technology. The USDA, through the Animal and Plant Health Inspection Service (APHIS), reviewed HB4 wheat and concluded that it does not pose an increased plant pest risk relative to comparator wheat plants. As such, it is not subject to regulations under the 7 CFR part 340 for organisms modified or produced through genetic engineering. The determination clears the U.S. market for production of HB4 wheat and complements the FDA’s previously obtained favorable review for food and feed use. The United States is the fourth largest wheat producer in the world ― the largest in the Americas ― and is the fourth country in the world to greenlight production of HB4 wheat, following Argentina, Brazil and Paraguay. Australia, New Zealand, South Africa, Nigeria, Thailand, Indonesia, Colombia and Chile have all approved the technology for food and feed use. In Australia, an important wheat producing geography that is increasingly prone to water deficits, the company has recently received a license to undertake field trials to gather the necessary data for an eventual production application as well. ]]> https://agrospectrumasia.com/news/160/2398/silvec-biologics-to-combat-citrus-greening-disease-with-rna-based-plant-protection-products.html https://agrospectrumasia.com/news/160/2398/silvec-biologics-to-combat-citrus-greening-disease-with-rna-based-plant-protection-products.html Fri, 23 Aug 2024 11:12:47 +0530 Secures EPA Pesticide Regulation Improvement Act (PRIA) registration process Silvec Biologics, a Maryland based agtech company that develops RNA-based plant protection products, has announced that a first-of-its-kind RNA vector delivery product, developed in collaboration with Southern Gardens Citrus (a subsidiary of U. S. Sugar), University of Florida, and Texas A&M AgriLife Research, to combat the devastating and incurable citrus greening disease. Silvec Biologics is processing the EPA Pesticide Regulation Improvement Act (PRIA) registration and approval process following successful completion of Milestone #4 – Technical Screen earlier in July 2024. Citrus greening has had a massive impact on citrus production globally. Silvec product is based on a mild and naturally untransmittable version of a virus found in most citrus trees that has been reprogrammed to express a natural antimicrobial peptide found in spinach. A single application has been demonstrated in field trials to provide long-term reduction in yield declines caused by the citrus greening bacteria. This product is the first of its kind to use a viral vector to reduce damage from pathogens, is compatible with all commercial citrus varieties, and does not genetically modify the tree or its fruit. The citrus vector product has been approved by USDA for commercial use in all Florida counties following a positive Environmental Impact Statement issued by USDA in June 2020. Silvec, along with its regulatory partner, the IR-4 Project, filed an EPA registration application in January 2024 which commences an 18-month review process. According to Rick Dantzler, Executive Director of the Citrus Research and Development Foundation, a partnership between Florida citrus growers and government agencies, “CRDF sees the citrus vector technology as playing an instrumental role in helping to reduce the catastrophic effects of citrus greening on Florida citrus production and Silvec has our full support with its regulatory approval process.” Silvec develops RNA platforms for delivering traits into plants without modifying their genomes. Its products can enhance plant traits as well as protect against pathogens including viruses, bacteria, fungi, and pests with products developed at a fraction of the cost of other approaches. With plant pathogens causing hundreds of billions of dollars of annual damage and a strong demand for non-GM trait enhancement, Silvec’s proprietary RNA technology can revolutionize agriculture similar to how RNA therapies are revolutionizing human medicine ]]> https://agrospectrumasia.com/news/160/2392/genics-weatherbys-scientific-global-partnership-enables-worlds-most-advanced-breeding-programs.html https://agrospectrumasia.com/news/160/2392/genics-weatherbys-scientific-global-partnership-enables-worlds-most-advanced-breeding-programs.html Wed, 21 Aug 2024 11:26:09 +0530 ShrimpID as a bespoke genetic analysis suite for shrimp breeding programs Genics have partnered with Weatherbys Scientific, a global leader in high throughput genotyping, to offer ShrimpID to the world as a bespoke genetic analysis suite for shrimp breeding programs. Weatherbys Scientific is an industry-leading laboratory specialising in genetic testing solutions. Over the past than 30 years, Weatherbys Scientific has developed a reputation as a centre of excellence in animal genotyping. This enables farmers to utilise selective breeding programs that leverage detailed relatedness information to deliver genetically diverse and robust production populations. ShrimpID’s comprehensive marker set provides the data to establish detailed relatedness estimates among broodstock and tested animals, sex identification, and markers within genes that regulate productivity and disease resistance. With 60,000 markers for L.vannamei and 7,800 markers for P.monodon, ShrimpID provides selective breeding programs with unrivalled data quality to drive commercial performance gains  all made possible thanks to the partnership between Genics and Weatherbys Scientific. The sustainable long term production benefits delivered through ShrimpID provides unprecedented value to industry leaders focused on improved production performance. ShimpID’s application potential is particularly valuable to industry leaders looking to embed performance traits within their genetic lines providing unique market value propositions. Weatherbys Scientific ensures that ShrimpID is unrivalled in high density data turnaround times, meaning your live shrimp are always given priority processing at an Accredited Laboratory. ]]> https://agrospectrumasia.com/news/160/2374/australias-grdc-invests-3-million-in-soybean-breeding-by-germplasm-evaluation.html https://agrospectrumasia.com/news/160/2374/australias-grdc-invests-3-million-in-soybean-breeding-by-germplasm-evaluation.html Tue, 13 Aug 2024 10:53:32 +0530 Worth $6 million in total, the new breeding program will accelerate the delivery of new varieties to growers by ‘speed breeding’ using technology The Grains Research and Development Corporation (GRDC) will invest $3 million in a new five-year soybean breeding program that will be led by the University of Adelaide and aims to deliver new elite soybean varieties to Australian growers. Since 2012, GRDC has invested over $5 million in soybean breeding that has developed new varieties and advanced breeding material. Worth $6 million in total, the new breeding program will accelerate the delivery of new varieties to growers by ‘speed breeding’ using new technology to improve germplasm evaluation and other key breeding processes. GRDC genetic technologies, biosecurity and regulation general manager Juan Juttner says GRDC and the University of Adelaide had joined forces in a quest to deliver higher yielding soybean varieties suitable for a broader range of growing environments. “The important new, national soybean breeding program will build on previous investments GRDC has made in this area that have delivered significant gains for Australia’s soybean growers,” Dr Juttner says. GRDC oilseeds and genetic technologies manager Allison Pearson says the investment would evaluate breeding material with the goal of improving yield potential and ensuring that new varieties meet the quality parameters of domestic and international end users. Australian soybean production is around 40,000 tonnes per year. Its expansion has been limited due to inconsistent and unreliable production, exacerbated by environmental factors, crop price and variety choice. Within 10 years, Soy Australia wants to increase annual production to 150,000 tonnes per year – equating to $75 million – by improving production in existing areas and expanding soybean into new regions. The national soybean breeding program will focus on improved varieties for the existing soybean growing regions in Queensland and New South Wales and work towards expansion for new regions such as Central Queensland and South Australia. ]]> https://agrospectrumasia.com/news/160/2359/new-zealands-biolumic-to-enhance-inbred-corn-lines-through-uv-activation-of-genetic-expression.html https://agrospectrumasia.com/news/160/2359/new-zealands-biolumic-to-enhance-inbred-corn-lines-through-uv-activation-of-genetic-expression.html Wed, 07 Aug 2024 11:18:23 +0530 Pioneers New Seed Traits with Seed Company Partners BioLumic, the world’s only company treating seeds with light to activate genetic expression for new crop traits, has achieved a breakthrough in enhancing inbred corn lines. These genetically 'pure' parent seeds are crucial for producing the world’s high-performing hybrid seeds favored by most farmers. After achieving significant performance milestones in 2023 field trials, BioLumic is partnering with Beck's Hybrids, Peterson Corn Genetics, Peterson Farms Seed, Breeder Direct and other seed companies to use BioLumic’s Genetic Expression Trait™ light-activated technology on a wide range of inbred and hybrid corn lines aiming to enhance their productivity. The inbred trials specifically target improved germination, emergence, seedling vigor, yield, and hybrid seed quality – all issues often associated when working with inbred seed corn breeding and production. BioLumic harnesses ultraviolet (UV) light signaling, a scientifically-proven process, to rapidly activate natural genetic expression in plants for improved yield, quality, and plant defense traits without requiring genetic modification or chemical additives. BioLumic’s technology is being commercialized for inbred and hybrid corn cultivars, with plans underway for light-treated seeds to be available to farmers for the 2025 planting season. “By activating Genetic Expression Traits in corn parent lines and showing the ability to lock in those traits to hybrid corn progeny without any ensuing treatments, our UV light technology is rewriting the playbook for seed production,” said Steve Sibulkin, BioLumic CEO. “It eliminates years of trait identification and breeding work for driving yield, quality and plant health without the multi-year regulatory process associated with genetic modification.” BioLumic’s light treatments for inbred seed are tailored to solve the problems associated with inbreeding depression. In 2023 trials, treated inbred corn lines with the stand establishment and yield trait package demonstrated a more than 7.3% yield gain without any changes compared to the grower’s standard practice – and the company is targeting double-digit yield gains this year. These substantial improvements in inbred uniformity and yield were driven by enhanced early-season germination and increased seedling vigor, including an average 16% advantage in root biomass. BioLumic’s Genetic Expression Traits can also be stacked together as trait packages to target multiple traits, such as improved stand establishment, yield, and composition (e.g. lipid content). BioLumic is set to commercialize Genetic Expression Traits for both inbred and hybrid corn in partnership with Gro Alliance in Q1 2025. The company is actively collaborating with genetics providers to develop new traits for their cultivars. Additionally, BioLumic is advancing trait development of soybean parent lines, with initial trials commencing this year. ]]> https://agrospectrumasia.com/news/160/2350/mgi-tech-partners-with-unalm-and-inca-tops-to-strengthen-perus-textile-industry.html https://agrospectrumasia.com/news/160/2350/mgi-tech-partners-with-unalm-and-inca-tops-to-strengthen-perus-textile-industry.html Fri, 02 Aug 2024 11:20:54 +0530 A genetic sequencing project involving 1,500 alpacas aims to refine the quality and fineness of their fiber through molecular marker identification within their genomesIn Peru, alpaca fiber has become a flagship product driving the fashion industry. Highly valued for its exceptional softness, quality, strength, and authenticity, this raw material is covered in the world's most exclusive stores. According to national reports, nearly $200 million worth of products made from alpaca fiber, including fabrics, garments, and other derivatives, are exported each year to the United States, Europe, and Asia. In their effort to advance the Peruvian textile industry, MGI Tech Co., Ltd., a company committed to building core tools and technologies that drive innovation in life science, along with Universidad Agraria de La Molina (UNALM) and Inca Tops, are spearheading genetic research on 1,500 alpacas from Puno. This initiative focuses on DNA analysis to identify molecular markers within their genomes, that optimize fiber quality, enhance fineness, and maintain natural colors. MGI to contribute to the sequencing of alpaca fiber genes. By providing high-quality data through cutting-edge, highly efficient, and cost-effective technologies, to harness the potential of agri-genomics to enhance industry competitiveness in developing countries. The research commenced in June 2024 and will continue until March 2025 in the districts of Melgar and Ñuñoa. Carlos Carpio, MGI's Commercial Director for Latin America, states that the implementation of genomics contributes to the development and growth of the alpaca industry, enabling scientists not only to identify and analyze genes and their characteristics but also to conduct more efficient processes for optimization. "Latin America has become a strategic region for advancing next-generation genetic sequencing research, particularly in agriculture. In the case of alpacas, genomics facilitates the enhancement of key physical traits and disease resistance, ensuring the long-term health of the animals and the consistent quality of their fiber. This benefits breeders by improving the profitability and sustainability of alpaca production, while also promoting more efficient and environmentally friendly agricultural practices." Carpio also underscores that the technology MGI is employing for genetic sequencing accelerates research in industrial crops like alpaca fiber. In this project, sequencing is performed on MGI's high-throughput sequencer DNBSEQ-T7RS. Libraries are prepared on the MGISP-960 using library prep reagents, and data analysis for variant calling is conducted on MGI's Megabolt. Dr. Gustavo Gutiérrez, a faculty member and researcher at the Department of Zootechnics at Universidad Nacional Agraria La Molina (UNALM), who oversees the DNA extraction from these animals, highlights the global significance of alpaca fiber. Alpacas offer 23 natural shades in garments without the use of dyes. ]]> https://agrospectrumasia.com/news/160/2336/biome-makers-launches-new-agronomic-insights-tool-becrop-farm.html https://agrospectrumasia.com/news/160/2336/biome-makers-launches-new-agronomic-insights-tool-becrop-farm.html Tue, 30 Jul 2024 05:56:00 +0530 Biome Makers, a leading global agtech company on a mission to recover soil health and improve farmer profitability, has announced the latest evolution of BeCrop technology. BeCrop Farm is the first digital platform designed to maximize the potential of every acre. This innovative solution evaluates over 1,000 parameters, including complex biological data and environmental factors, to provide precise input recommendations and tailored agronomic insights on soil health, disease risk, and management practices. For nearly a decade, Biome Makers has led the industry in building the largest global soil microbe database and scientifically verifying the claims of over 400 biological input products and management practices from ag input manufacturers, retailers, and other agribusinesses around the globe. Biome Makers has now taken a step further to revolutionize agriculture by empowering the industry with real actionable insights to save time and money and recover soil health. With the increasing adoption of biological products and the expanding options available to farmers each season, proven and precise product recommendations are becoming essential for ensuring consistent performance and ROl. BeCrop Farm addresses this by eliminating guesswork and providing farmers and retailers with tools to help them choose the right products and receive agronomic insights and recommendations that are easy to visualize and implement. “Understanding the impact of products and management practices on soil is complex and most often requires experienced scientists and agronomists to make sense of the data,” said Alberto Acedo, co-founder and CSO at Biome Makers. “BeCrop Farm combines biological, chemical, and environmental data and utilizes advanced AI to provide farmers and retailers with an actionable recommendation to make informed decisions and maximize impact.” ]]> https://agrospectrumasia.com/news/160/2304/syngenta-collaborates-with-ginkgo-bioworks-for-rapid-launch-of-innovative-biologicals.html https://agrospectrumasia.com/news/160/2304/syngenta-collaborates-with-ginkgo-bioworks-for-rapid-launch-of-innovative-biologicals.html Wed, 17 Jul 2024 14:49:32 +0530 Syngenta will leverage Ginkgo’s Ag Biologicals capabilities to optimize secondary metabolite production for a pioneering biological solution Syngenta Crop Protection, and Ginkgo Bioworks, which is building a platform for cell programming and biosecurity, has announced a new cooperation aimed at accelerating the launch of a new biological solution. The two companies have previously collaborated on next-generation seed technology. Through this new collaboration, Ginkgo plans to develop and optimize a microbial strain that can meet the productivity targets of a secondary metabolite from the Syngenta Biologicals pipeline. This molecule is earmarked by Syngenta as a pioneering biological solution. Successful cost-effective and large-scale production of this targeted metabolite would significantly expedite Syngenta's go-to-market timeline for its latest biological solution. To achieve this, Ginkgo will use its Ag Biologicals capabilities to calculate theoretical performance and guide rational strain engineering strategies to develop the microbial strain that is robust enough to meet Syngenta’s goals. Ginkgo will leverage its biological knowledge and machine learning approaches to develop insights from multiple complex data sources and apply this toward diagnosing strain performance limitations as well as biological feature discovery. “Biologicals are increasingly important in addressing the need for efficient and sustainable agricultural solutions worldwide. At Syngenta, we are committed to providing farmers with greater complementary product and technology choices that promote sustainable agricultural practices,” said Camilla Corsi, Global Head of Research at Syngenta Crop Protection. “We are excited to work with Ginkgo, and are confident that their distinctive capabilities will enable us to achieve our productivity goals for our targeted molecule, expediting our time to market.” Magalie Guilhabert, Head of Ag Biologicals at Ginkgo Bioworks, said: “We’ve built a successful relationship from our work together on plant traits and now look forward to doing the same with ag biologicals. Ginkgo is proud to put our excellent assets and experience against some of our customer’s toughest challenges. We’ll work to achieve productivity levels to realize commercial viability for Syngenta’s innovative ag biologicals product launch.” ]]> https://agrospectrumasia.com/news/160/2300/chinas-origin-agritech-updates-on-its-gmo-commercialization-and-gene-editing-business.html https://agrospectrumasia.com/news/160/2300/chinas-origin-agritech-updates-on-its-gmo-commercialization-and-gene-editing-business.html Tue, 16 Jul 2024 16:13:13 +0530 In a recent media interaction, Origin Agritech Chairman and CEO Dr. Gengchen Han provide you with an update on our recent developments, including our progress in GMO commercialization, the performance of our commercial hybrids, and advancements in our gene editing business. GMO Commercialization DevelopmentsRecently, Origin Agritech achieved a significant milestone by obtaining China's GMO safety certificate for our transgenic maize, BBL2-2. This maize GMO event, developed in collaboration with the Biotechnology Institute of the Chinese Academy of Agricultural Sciences, exemplifies our commitment to innovation and sustainable agricultural practices. The BBL2-2 maize event is engineered with two insect-resistant genes, Cry1Ab and Cry3b, and one herbicide-tolerance gene, Cp4-epsps. These genetic traits provide robust protection against various pests, including corn borer, cotton bollworm, armyworm, and Firefly bimaculata, making it the only maize variant in China resistant to coleopteran pests. We are also progressing with several hybrids incorporating these traits, which are entering GMO variety registration trials. Commercial Hybrid PerformanceAt Origin Agritech, we have always focused on developing hybrid crops that deliver superior yield, resilience, and sustainability. Our latest commercial hybrids have performed exceptionally well in field trials and commercial plantings, demonstrating significant advantages over traditional varieties. These hybrids are engineered to thrive under high-density planting conditions, which are crucial for maximizing yield per acre. By optimizing plant architecture, including improved leaf angles and root structures, our hybrids allow for higher planting density without sacrificing plant health or productivity. One of our standout performers is the new corn hybrid, OY728, which has shown excellent results in various planting environments. Its robust growth and high yield potential have made it a preferred choice for farmers looking to increase their productivity and profitability. The improved version of OY728 will be in production and sales in 2025. Additionally, our NEC hybrids have also performed well in large-scale demo plots, offering superior yield and nutritional value. Gene Editing Business ProgressOur gene editing business is a testament to our commitment to developing next-generation solutions that enhance crop productivity, resilience, and sustainability. Through precise gene editing techniques, we have achieved remarkable breakthroughs that are transforming the agricultural landscape. One of our most notable achievements is developing a high-yield corn inbred line. Over two years of rigorous multilocational field trials, this gene-edited line has demonstrated a yield increase of more than 50% compared to the non-edited check inbred. This leap in productivity addresses global food security challenges and sets a new standard for crop efficiency. In addition to increased yields, our gene-edited crops offer significant cost reductions in hybrid seed production. By enhancing specific genetic traits, we can create more productive and cost-effective crops for farmers to grow. Another groundbreaking development is establishing the world's first induction line genetic transformation system. This innovative system allows us to quickly and accurately edit major maize inbred lines with diverse genetic backgrounds. It breaks the technical barrier of improving maize inbred lines through gene editing, enabling us to enhance crop traits within just one year. We have developed various gene editing platforms to precisely improve commercial hybrids, including optimizing plant architecture to increase planting density, drought tolerance, disease resistance, and other characteristics. The gene-edited high-yield inbreds and related hybrids are currently in production trials and demo plots this season, with the gene-edited plant architecture hybrids soon to enter commercial production. ]]> https://agrospectrumasia.com/news/160/2268/scientists-in-china-discover-transcriptional-regulatory-network-of-wheat-endosperm-development-to-enhance-breeding.html https://agrospectrumasia.com/news/160/2268/scientists-in-china-discover-transcriptional-regulatory-network-of-wheat-endosperm-development-to-enhance-breeding.html Fri, 05 Jul 2024 10:57:30 +0530 Regulating endosperm development is an important strategy for increasing crop yield and quality, as well as addressing the trade-off between these two factors Improving yield and quality are central goals of wheat breeding. The endosperm is the main nutrient storage organ of wheat grain and the primary source of flour. Seed storage proteins (SSP) and starch are the main components of the endosperm, and the balance between them directly affects wheat grain yield and its end-use quality. Regulating endosperm development is an important strategy for increasing crop yield and quality, as well as addressing the trade-off between these two factors. In a recent study led by Prof. XIAO Jun from the Institute of Genetics and Developmental Biology (IGDB) of the Chinese Academy of Sciences, a new discovery was made in elucidating the transcriptional regulatory network during wheat endosperm development and identifying key regulatory factors impacting this process.  By integrating transcriptome data, chromatin accessibility, and various histone modification sequencing at eight key developmental stages, researchers mapped the dynamic transcriptional and epigenetic modification landscape of wheat endosperm development. The epigenetic regulatory regions were found to be significant for driving the expression regulation of SSP and starch genes and for shaping the diversity of grain weight and quality phenotypes within wheat populations. In this work, the researchers constructed a hierarchical transcriptional regulatory network, identifying 436 core regulatory factors, including a set of transcription factors that synergistically or antagonistically regulate the expression of SSP and starch synthesis genes. Additionally, they also conducted a comprehensive evaluation of novel genes, screening 42 reliable candidate genes for regulating storage protein and starch synthesis, with support from GWAS signal, expression-phenotype correlations, and morphological defects of TILLING mutants. Among these candidate genes, TaABI3-A1 negatively regulated starch biosynthesis while activating storage protein accumulation, and it has been selected during the wheat breeding process in China as a key factor potentially balancing wheat yield and quality. This study elucidates the epigenetic and molecular regulatory mechanisms of the coordinating SSP and starch synthesis in wheat grains, providing essential gene resources and selection targets for breeding wheat varieties with high yield and good end-use quality. ]]> https://agrospectrumasia.com/news/160/2266/integra-biosciences-pipettes-empower-agri-genomic-research-with-robust-micropipettes.html https://agrospectrumasia.com/news/160/2266/integra-biosciences-pipettes-empower-agri-genomic-research-with-robust-micropipettes.html Thu, 04 Jul 2024 10:45:43 +0530 VOYAGER adjustable tip spacing pipettes streamlines phenotyping and genotyping workflows in agriculture research activities To streamline its liquid handling workflows, the National Agricultural Research and Development Institute (NARDI) in Fundulea, Romania, uses electronic multichannel pipettes from INTEGRA Biosciences. In order to address current agricultural challenges, such as climate change, land scarcity and biodiversity loss, the institute's phenotyping and genotyping laboratory uses these pipettes to extract and analyze DNA from hundreds of samples each day. NARDI Fundulea is recognized as the main agricultural research center in Romania, and has developed over 400 cultivars of field crops – including sunflower, maize, wheat, durum wheat, barley and soybeans – in its breeding program. To support this work, the institute conducts a variety of genetic diversity and association studies for important agronomic traits, including disease resistance, heat and stress tolerance, drought yield and quality. The facility introduced its first VOYAGER adjustable tip spacing pipette to the laboratory in 2015, and the pipettes quickly became an integral part of laboratory workflows. Daniel Cristina, a researcher in the genotyping and phenotyping laboratory, explained: “We investigate many different genomic and phenotypic markers in crops that we harvest from local fields, and our results help our in-house breeders to create new plant varieties with desirable traits. This requires us to perform a large number of polymerase chain reaction (PCR) assays – as well as more specific types of genotyping experiments, such as competitive allele-specific PCR (KASP) assays – which involve many liquid handling steps. We therefore rely on our VOYAGER pipettes – with their unique, motorized tip spacing adjustment – to efficiently and simultaneously transfer multiple samples between different labware sizes and formats, including from tubes to plates.” ]]> https://agrospectrumasia.com/news/160/2251/dovetail-genomics-and-agrf-announce-transformative-partnership-set-to-advance-genomic-research-in-australasia.html https://agrospectrumasia.com/news/160/2251/dovetail-genomics-and-agrf-announce-transformative-partnership-set-to-advance-genomic-research-in-australasia.html Fri, 28 Jun 2024 10:06:00 +0530 Collaboration establishes Cutting-Edge Genomic technologies, boosting innovation in agri-genomics access across Australia and New Zealand Dovetail Genomics, a pioneering leader in the development of genomic solutions, today announced a new strategic partnership with Australian Genome Research Facility (AGRF). As Australia's premier nonprofit genomic sequencing service provider, AGRF powers genomics through a national network of services and expertise. This collaboration is aimed at bolstering genomic research and innovation across Australia and New Zealand, launching AGRF as the premier provider of Dovetail's cutting-edge products and services in the Australasian market. Australasia is a subregion of Oceania, comprising Australia, New Zealand, and some neighbouring islands in the Pacific Ocean. Under this partnership, AGRF will offer Dovetail's comprehensive 3D genomic portfolio of proximity ligation-based products, including Dovetail® Omni-C®, Micro-C, and the new family of LinkPrep™ Technology based products, TopoLink™, AssemblyLink™, and VariLink™ Kits. This alliance not only redefines the accessibility and application of advanced genomics across various sectors, including biomedical, agri-genomics, and clinical research, but it also significantly enhances and expands AGRF's service offerings. By integrating Dovetail's proprietary technologies, such as the rapid, single-day LinkPrep™ chemistry which is crucial for advanced genome assembly, genetic variation and epigenetic applications, AGRF will provide localized, high-quality genomic services, transforming the way researchers study the 3D genome. Mathew Easterday, Ph.D., J.D., Chief Executive Officer of Dovetail Genomics,  shared his enthusiasm for the new strategic partnership, stating, "Our collaboration with AGRF is not just a partnership; it's a powerful union that combines Dovetail's cutting-edge technological platforms with AGRF's extensive and robust service network to unlock new research opportunities in Australasia. Together, we are committed to advancing genomic research and setting new benchmarks for what can be achieved in the realms of biomedical, agricultural, and clinical research." The collaboration aligns with global industry trends as Hi-C technologies gain traction across a plethora of genomic applications and disease states. By joining forces with AGRF, Dovetail Genomics underscores its commitment to expanding its global footprint and supporting the scientific community with advanced genomic solutions. Cath Moore, Ph.D., Chief Scientific Officer at AGRF, elaborated on the significance of the partnership, stating, “AGRF is very excited to partner with Dovetail Genomics. 3D genomics is transformative for researchers utilising AGRF’s genomic services.  Unlocking the spatial mysteries of DNA; how it folds and loops and how that impacts gene regulation, cell differentiation, genome stability, and disease mechanisms. Bringing this capability to AGRF, and so to the Australian research community, provides a comprehensive understanding of genome function beyond linear DNA sequences, transforming our knowledge of cellular biology and disease mechanisms.  AGRF’s mission is to partner with the genomics community to make profound improvements to people’s lives by delivering a world-class, innovative, and integrated capability. This strategic partnership helps us to deliver that capability.” The full suite of Dovetail products is available immediately through AGRF, providing Australasian researchers with advanced genomics tools aimed at transforming the way researchers study the 3D genome during this critical period of scientific advancement. ]]> https://agrospectrumasia.com/news/160/2230/syngenta-and-instadeep-collaborate-to-accelerate-crops-seeds-trait-research-using-ai-large-language-models.html https://agrospectrumasia.com/news/160/2230/syngenta-and-instadeep-collaborate-to-accelerate-crops-seeds-trait-research-using-ai-large-language-models.html Thu, 20 Jun 2024 06:32:19 +0530 Large Language Models (LLMs) aim to reduce research cycle time and bolster decision science to bring valued solutions to farmers. Syngenta Seeds, one of the world’s leading global agriculture technology companies, today announced a collaboration with AI company, InstaDeep, to bring Syngenta’s proprietary trait research and development capabilities together with InstaDeep’s Large Language Model (LLM) platform to accelerate the development of solution-providing crop traits for farmers. InstaDeep has developed a state-of-the-art language model, AgroNT1, trained on trillions of nucleotides from agriculturally relevant crop species, to interpret the complex language of the genetic code. This next-generation AI technology learns from nature and was designed to accurately predict how genes are regulated, potentially enabling a new level of trait control and crop performance. “We are excited to collaborate with InstaDeep and bring forward insights from advanced AI to accelerate the advancement of our proprietary trait pipeline, enabling us to bring innovative and effective solutions to challenges facing agriculture,” said Gusui Wu, Global Head of Syngenta Seeds Research. “The potential of LLMs to understand the language of DNA opens new opportunities to gain insight and to more quickly deliver traits farmers need to enhance and protect yields.” “Our collaboration with Syngenta Seeds is a major milestone for InstaDeep and the transformative agricultural science our Genomics AI team is helping pioneer,” said Karim Beguir, InstaDeep CEO and Co-Founder. “We’re excited by AI’s potential to discover and deliver new traits critical for advancing a more sustainable, resilient, and productive food system.” The initial phase of the collaboration will focus on AI-mediated trait design for both corn and soybeans. ]]> https://agrospectrumasia.com/news/160/2218/mgi-tech-launches-whole-workflow-solution-for-agricultural-genome-sequencing.html https://agrospectrumasia.com/news/160/2218/mgi-tech-launches-whole-workflow-solution-for-agricultural-genome-sequencing.html Fri, 14 Jun 2024 10:50:01 +0530 Large-Scale Low-pass Whole genome sequencing model designed specifically for Low-pass WGS applications with a new plate-based library preparation reagent module MGI Tech Co., Ltd. (MGI), a company committed to building core tools and technologies that drive innovation in life science, announced a highly efficient whole workflow solution for agricultural large-scale Low-pass whole genome sequencing (Low-pass WGS) based on its proprietary DNBSEQ™ platforms. The new solution consists of an automated full-process product portfolio designed for large-scale molecular breeding genotyping of agricultural diploid species. The full workflow covers extraction, library preparation, sequencing, and SNP & InDel calling. The new MGIEasy Large-scale PCR-Free FS Library Prep Set for Low-pass WGS, available in two specifications, 96RXN and 384RXN, is designed specifically for Low-pass WGS applications with a new plate-based library preparation reagent module. Compared with common PCR-free library preparation sets on the market, this kit cuts the purification step and completes library construction in three easy steps, reducing the time and consumables required. In combination with MGI's advanced automation platforms, the Low-pass WGS solution breaks through the limit on throughput as seen in ordinary library preparation. It utilizes the fewer number of automated tools to match ultra-high throughput, as while maintaining a high degree of automation. As a result, large-scale library preparation can be done in a short time, at low cost, and with great automation friendliness. For sequencing, the product bundles for high throughput and medium throughput Low-pass WGS feature the ultra-high-throughput DNBSEQ-T7 sequencer and the versatile DNBSEQ-G400 benchtop sequencer respectively, empowering large-scale agricultural genomics research projects in a short time. "Since genome selection was widely used in agricultural breeding, genotyping tools went through several iterations, sequencing technology gradually shows its irreplaceable advantages," said Duncan Yu, President of MGI. "Low-pass WGS has been applied in both animal and plant breeding, but not without implementation challenges. Our new total solution for large-scale pig breeding addresses these user pain points and promises flexible automation needs, simplified library preparation, high throughput sequencing, and efficient data processing." Bolstered by MGI's powerhouse instruments, this agricultural Low-pass WGS solution has a daily throughput of 96 to 1,536 samples and annual throughput of 24,000 to 384,000 samples (based on the 1.0X depth of a pig genome and an average sample data output of 3G). It has also obtained high-accuracy SNP results from 0.5~1X Low-pass in pig ear tissue samples, demonstrating 98.4% consistency with the SNP array and 98.1% with 50X WGS. Together with MGI's self-developed MegaBOLT bioinformatics analysis accelerator, it can analyse 192 pig 1.0X samples daily, and approximately 1,536 per day with ZBOLT Pro. Compared to traditional genotyping by microarray, MGI's new solution offers genome-wide data at the same cost but captures a broader range of genetic variation, enhances the discovery of new variants, and increases the statistical power of genome-wide studies, all while eliminating high design and start-up costs associated with microarrays. The dynamic features of this solution enable continuous updates and optimizations in genomic analyses. ]]> https://agrospectrumasia.com/news/160/2209/researchers-explore-plant-nanobiotechnology-by-adopting-nanomedicine-and-digital-twin-technologies-in-smart-agricultural-practices.html https://agrospectrumasia.com/news/160/2209/researchers-explore-plant-nanobiotechnology-by-adopting-nanomedicine-and-digital-twin-technologies-in-smart-agricultural-practices.html Wed, 12 Jun 2024 10:58:18 +0530 Carnegie Mellon researchers develop sustainable solutions for Global food security Researchers in the Department of Civil and Environmental Engineering at Carnegie Mellon University are using findings from nanomedicine and digital twin technologies to understand the new field of Plant Nanobiotechnology, address unsustainable agricultural practices, and meet increasing global food demands. Currently, agriculture accounts for 14-28% of global greenhouse gas emissions and 70% of all freshwater withdraws. This, in addition to a range of other factors from extreme weather events, rampant crop pests, and rapidly degrading soil underlines the need for new agricultural practices and technologies. Researchers highlight that Plant Nanobiotechnology approaches can be used to deliver nanoforms of active agents, such as micronutrients or plant protection products, to specific biological targets. As a result, plants become more resilient against disease and harmful environmental factors like extreme heat or salt contents in soil, thus increasing crop yield and overall efficiency. However, because the field of Plant Nanobiotechnology is still in its nascent stages, many of the challenges to implementing new tools like nanocarriers are still unknown to researchers. To overcome this obstacle, civil and environmental engineering professor Greg Lowry, in collaboration with co-corresponding author Juan Pablo Giraldo at University of California Riverside, colleagues, and students, is looking beyond plants and agriculture to find solutions inspired by nanomedicine. Similar to nanomedicine, researchers found that nanocarriers are most successful when they interact well with the organism they’re targeting, navigate key biological barriers, and take advantage of natural processes while minimizing unintended consequences. The study also explored the potentially transformative approach of creating “digital twins” of plants for assessing the efficacy of different nanocarrier designs. Digital twins are breakthrough modeling technologies that have been widely used throughout infrastructure management, predictive maintenance, and manufacturing. Their unique ability to analyze a structure and its surrounding conditions, process the information, and use it to inform, predict, and modify what happens in the physical world has revolutionized the way researchers process data. ]]> https://agrospectrumasia.com/news/160/2180/bayer-advances-genome-editing-initiatives-for-nutrition-enhanced-vegetables.html https://agrospectrumasia.com/news/160/2180/bayer-advances-genome-editing-initiatives-for-nutrition-enhanced-vegetables.html Mon, 03 Jun 2024 10:43:09 +0530 Collaboration with G+FLAS to develop new tomato varieties addresses Vitamin D deficiency affecting a billion people worldwide  Bayer has advanced two initiatives with external partners to bring forward genome editing in vegetables. Bayer and South-Korean biotech company G+FLAS have entered into an agreement to collaborate on developing genome-edited tomato varieties that are nutritionally enhanced with vitamin D3. Vitamin D deficiency is a widespread issue globally, particularly in countries where winter sunlight is limited. It affects an estimated billion people worldwide and can lead to a range of health issues including rickets. Part of the agreement is also the ambition to develop seeds for a broader variety of tomato products using genome editing. “Bayer is committed to achieving ‘Health for All, Hunger for None’. As we work toward this mission, we are proud to address a widespread nutrition problem and to support a healthy diet through cutting-edge technology. The collaboration leverages G+FLAS’ genome editing technology and Bayer’s proprietary tomato germplasm,” said JD Rossouw, Head of Vegetables Research & Development at Bayer. Bayer launches open innovation platform for genome editing in vegetables The collaborations with G+FLAS and Pairwise are an example of a crucial part of Bayer’s innovation strategy: combining Bayer’s leading Research & Development capabilities with knowledge and ingenuity from experts outside the company. As part of this, Bayer has now started another open innovation platform with a focus on genome editing in fruits and vegetables. Bayer obtains license to genome edited leafy greens from Pairwise The importance of Bayer’s strategic open innovation approach has already been proven, now most recently through a new licensing agreement with US-based pioneering food and agtech startup Pairwise. Bayer has acquired a license from Pairwise that grants rights to work with and commercialize Pairwise’s genome edited mustard greens. These are a mix of colorful leafy greens with a unique, fresh flavor and higher nutrition compared to lettuce, achieved through genome editing. They were the first gene-edited food introduced to the North American market. “This agreement and its focus on genome-edited produce made a substantial contribution to our open innovation approach. We’re excited to partner with Pairwise on their innovative leafy greens, which deliver a new, great-tasting salad option with high nutrition value,” said JD Rossouw. “The latest deal creates value beyond just selling a product, as it also comes with rights to use the knowledge, intellectual property, and technology going forward.” The license includes commercialization rights for the varieties developed by Pairwise and rights to develop new varieties. ]]> https://agrospectrumasia.com/news/160/2164/new-frontiers-in-sustainable-agriculture-can-be-found-in-consortia-of-bacteria-or-fungi.html https://agrospectrumasia.com/news/160/2164/new-frontiers-in-sustainable-agriculture-can-be-found-in-consortia-of-bacteria-or-fungi.html Tue, 28 May 2024 11:41:34 +0530 Microbial consortia were also effective in mitigating plant abiotic stresses, such as exposure to heavy metals, water deficit and soil salinization Researchers at Federal University of Lavras (UFLA)  report that the use of microbial consortia offers significant benefits for plant growth, surpassing traditional inoculation methods with single species. Recent studies have revealed that the combination of microorganisms like Bradyrhizobium and Pseudomonas oryzihabitans increased soybean yield by 11% in comparison with individually treated plants. The approach also promoted more robust root growth and better nutrient accumulation. Based on a comprehensive literature review, researchers report researcher at the Federal University of Lavras (UFLA) Peterson Nunes explains, consortia involving four mycorrhizal fungi (Funneliformis constrictum, F. mosseae, Gigaspora margarita and Rhizophagus irregularis) and the fungus  Beauveria bassiana, found in the soil, significantly improved cotton growth. Those combinations not only increased protein and carbohydrate contents in plants, but they also reduced the growth of a pest, the caterpillar Spodoptera littoralis. The synergy between different strains of Beauveria resulted in 100% mortality of another pest, the moth Plutella xylostella. By the same token, a consortium of two strains of B. bassiana showed higher efficienct against Duponchelia fovealis caterpillar larvae. Additional studies indicates that microbial consortia can be effective in mitigating abiotic stresses, including those caused by heavy metals, water deficit and soil salinization.  For the Embrapa Environment analyst Gabriel Mascarin, os micróbios benéficos têm um papel crucial na agricultura moderna, atuando como biopesticidas, bioestimulantes e biofertilizantes. Eles também contribuem para a saúde e sustentabilidade das culturas, alinhando-se com os princípios da agricultura regenerativa. The use of microbial consortia is gaining recognition due to their many potential advantages, such as their stability under different environmental conditions and reduced application costs. The approach also increases microbial biodiversity in plants' rhizosphere and phyllosphere (which refer to the environments near the plant roots and above the ground, respectively), contributing to a more balanced ecosystem. Recent studies have indicated that microbial consortia can even help to reduce traces of pesticides. A consortium of Aspergillus versicolor and bacteria that had been isolated from sewage sludge showed higher efficiency in the degradation of carbendazim and thiamethoxam molecules. Likewise, a consortium made of Pseudomonas plecoglossicida and two Pseudomonas aeruginosa isolates degraded organophosphate insecticides more efficiently than when they were individually applied.The combination of different microorganisms also demonstrate benefits in controlling plant diseases and promoting growth. In tests with chickpeas, the combination of Purpureocillium lilacinum and Rhizobium sp. provided superior protection against the nematode Meloidogyne javanica and promoted vigorous plant growth. ]]> https://agrospectrumasia.com/news/160/2150/bioceres-commercializes-first-hb4-transgenic-wheat-in-argentina.html https://agrospectrumasia.com/news/160/2150/bioceres-commercializes-first-hb4-transgenic-wheat-in-argentina.html Mon, 20 May 2024 11:16:53 +0530 According to Bioceres CEO Federico Trucco, the first seeds were aimed at agricultural input retailers in Argentina. The Argentine company, Bioceres Crop Solutions, has announced its first sales of HB4 transgenic wheat seed, the first time this genetically modified (GM) wheat technology has become commercially available to any interested country. The company offers four varieties of HB4 wheat in its Argentine portfolio, which are Bermejo, Paraná, Traful, and Iruya HB4. One solution would be the adoption of weather-tolerant genetically modified wheat varieties. But embracing biotechnology, particularly when it comes to a food grain like wheat, has never been simple. Despite the preponderance of scientific evidence showing that GM wheat, as well as other grains, are safe to consume, a significant and vocal minority of consumers are adamant in their disdain for all things genetically modified. Thus, flour millers and other downstream wheat-based food processors, many of whom are privately intrigued by the possibility of GM wheat commercialization, take a cautious public stance to not upset customers or potential customers. For example, World Grain reached out to a number of people in the global flour milling community for comment on this issue, but most declined. In the eye of this stormy situation is Argentinean biotech company Bioceres Crop Solutions, the maker of HB4 wheat, a genetically modified, drought-resistant variety that during the past two years has gained acceptance and regulatory approval in several South American countries and also has cleared preliminary regulatory hurdles in Australia and the United States. According to Trucco, transgenic wheat is gaining more acceptance as it receives more approvals from governments and industry groups. In Brazil, the HB4 transgenic wheat was approved over a year ago by the National Technical Biosafety Commission (CTNBio). The application was submitted by the Brazilian company, Tropical Melhoramento e Genética (TMG), which has a partnership with Bioceres. ]]> https://agrospectrumasia.com/news/160/2138/novel-five-year-project-can-develop-bacteria-for-environmental-cleanups.html https://agrospectrumasia.com/news/160/2138/novel-five-year-project-can-develop-bacteria-for-environmental-cleanups.html Thu, 16 May 2024 10:56:31 +0530 WPI researcher Receives $1.2 Million award to determine how environment impacts Gene Expression in Bacteria Worcester Polytechnic Institute (WPI) researcher Natalie Farny is launching a $1.2 million, five-year project that could advance the use of bacteria for environmental cleanups by determining how a critical biological process regulates genes in bacteria as they adapt to conditions outside of laboratories. Farny, an assistant professor in the Department of Biology and Biotechnology, will examine the role of methylation on gene expression in Pseudomonas putida, a soil bacteria that was first identified in Japan and is considered a versatile organism for industrial and environmental engineering. The National Science Foundation has awarded Farny a prestigious CAREER Award to fund the project, which will provide research opportunities for WPI students and generate new undergraduate educational resources focused on synthetic biology, a field that applies engineering design principles to build novel biological systems for use in fields such as medicine, manufacturing, and agriculture. “Genetically engineered bacteria have the potential to break down contaminants in soil, whether they are explosive materials deposited on military firing ranges or chemicals left behind by industry,” Farny said. “To engineer stable bacteria that behave in predictable and desirable ways once they are released into the environment, however, it will be essential to better understand how their genes are impacted by the environment.” Farny’s project focuses on methylation, a biological process that can be triggered by environmental factors. Methylation adds a chemical, known as a methyl group, to an organism’s genome. This addition can influence how the organism’s genes are expressed. In bacteria, which are single-cell organisms abundant in nature, methylation is a key factor in regulating gene expression. Farny will investigate the impact of methylation on gene expression of P. putida in soil and in a laboratory system that uses a liquid containing organic matter extracted from soil. She also will build gene circuits, which are networks of genes and regulatory elements that interact with each other, to test engineered P. putida under soil-like conditions. As part of her project, Farny will create free educational resources to introduce undergraduate students to synthetic biology, develop material for her synthetic biology course, and integrate synthetic biology into research projects for undergraduates in her lab. Project funds also will support at least two graduate students a year in their work, as well as summer research opportunities for two to three undergraduates a year. The project builds on Farny’s previous research into cell stress responses, biological sensors that could assist in remediating environmental contaminants, and methods for studying bacteria. The fundamental knowledge gained from insights into cells and their environment could lead to advances in cleaning up soil to grow food for Earth’s growing population, which makes the research important and compelling, Farny said. “The interaction between a cell and its environment has always fascinated me,” Farny said. “This project explores an interaction that has the potential to impact a matter critical to humanity. If we want to feed a growing population, if we want clean drinking water from ground sources, we will need to nurture and reclaim compromised soil. Engineered bacteria are good candidates for this work.” ]]> https://agrospectrumasia.com/news/160/2127/china-approves-first-gene-edited-wheat-in-step-to-open-up-gm-tech-to-food-crops.html https://agrospectrumasia.com/news/160/2127/china-approves-first-gene-edited-wheat-in-step-to-open-up-gm-tech-to-food-crops.html Mon, 13 May 2024 13:06:13 +0530 China has in the past year ramped up approvals of genetically modified (GM) corn and soybean seeds China has approved the safety of gene-edited wheat for the first time as Beijing cautiously moves forward with commercial growing of genetically modified food crops. China has in the past year ramped up approvals of genetically modified (GM) corn and soybean seeds that are higher-yielding and resistant to insects and herbicide to secure its food security, but the uptake remains slow and cautious due to concerns about the impact to health and ecology. Unlike genetic modification, which introduces foreign genes into a plant, gene editing alters existing genes to change or improve its performance and is viewed by some scientists as less risky than genetically modifying them. China mostly imports GM crops such as corn and soybeans for animal feed and grows non-GM varieties for food consumption. Many Chinese consumers remain concerned about the safety of GM food crops. The approval for the gene-edited disease-resistant wheat is seen as a milestone, as the ingredient - used to make pasta, noodles and bread - is predominantly grown in China for food consumption. China is the world's largest wheat producer and consumer. "It is a big step, we can see the light for China to open up approvals for other food crops," said a seed industry executive. Beijing is also expected to pass new rules this year for the labelling of genetically modified crops used in food products, state media reported in March. ]]> https://agrospectrumasia.com/news/160/2114/origin-agritech-receives-gmo-safety-certificate-for-its-triple-stack-maize.html https://agrospectrumasia.com/news/160/2114/origin-agritech-receives-gmo-safety-certificate-for-its-triple-stack-maize.html Fri, 10 May 2024 07:06:00 +0530 Commercial Rollout to Begin Shortly Origin Agritech Ltd., a leading Chinese agricultural technology company, announced the issuance of a GMO safety certificate for its transgenic maize, BBL2-2, marking a significant milestone for the Company and the agricultural sector, heralding a new era in crop innovation. The newly certified BBL2-2 maize contains two insect-resistant genes, Cry1Ab and Cry3Bb, and one herbicide-tolerance gene, Cp4-epsps. This genetic composition makes the maize resistant to various lepidopteran pests such as corn borer, cotton bollworm, armyworm. BBL2-2 is a product with substantial commercial value and extensive application potential. The certification of BBL2-2 confirms its adherence to stringent safety standards and paves the way for its commercial launch. The introduction of BBL2-2 is expected to significantly enhance agricultural productivity and sustainability, providing a powerful tool for farmers to manage pests more effectively and reduce the environmental impact of agriculture. Dr. Gengchen Han, Chairman and CEO of Origin Agritech, commented, "Receiving this GMO safety certificate is a transformative moment for Origin Agritech and agricultural biotechnology in China. BBL2-2 exemplifies our capabilities in genetic innovation and sets a new standard in sustainable agriculture. We are eager to lead the commercialization of this technology, which promises significant improvements in crop resilience and yield." In addition to its work on BBL2-2, Origin Agritech continues to advance its agricultural technology portfolio with significant progress in gene editing. Recently, the Company developed a high-yield corn inbred line through precise gene editing techniques, which has shown a yield increase of more than 50% over traditional corn in extensive multilocational field trials. The gene-edited event is now in the process of agricultural biosafety assessment. This development is expected to greatly enhance the productivity and cost-effectiveness of corn production, reinforcing Origin's commitment to sustainable and efficient agriculture. ]]> https://agrospectrumasia.com/news/160/2108/21st-bio-unveils-a-new-pilot-plant-facility-to-accelerate-impact-of-biotech-innovations-globally.html https://agrospectrumasia.com/news/160/2108/21st-bio-unveils-a-new-pilot-plant-facility-to-accelerate-impact-of-biotech-innovations-globally.html Wed, 08 May 2024 11:01:22 +0530 The pilot plant is focused on scaling up the production of recombinant proteins and peptides with applications in nutrition, food and beverages, agriculture, biomaterials, and biopharma 21st.BIO unveiled a new pilot plant facility in its Danish headquarters, designed to support companies upscale their bioproduction.  21st.BIO provides services ranging from strain construction to industrial production upscaling to customers worldwide. Combining world-class industrially proven technology with fermentation capacity, the company will help customers get to scale faster, in a risk-mitigated and cost-effective way.  21st.BIO offers this pilot facility to the market to facilitate and accelerate the step between internal lab-scale fermentation and large-scale production. 21st.BIO's pilot construction and deep experience are ideal to define the important parameters and equipment needed for optimal large-scale production of proteins via fermentation. This will, on top of the best fermentation protocols, for example also help customers select the best CMO for individual project needs and limit the risk of costly failures.  21st.BIO's pilot facility is designed for industrial production upscaling  The facility and all processing equipment are state-of-the-art, with much equipment designed for 21st.BIO.  With over 3000 liters of fermentation capacity, the facility offers a full range of capabilities, equipment, and competences to help customers optimize their own specific processes. The pilot plant is focused on scaling up the production of recombinant proteins and peptides with applications in nutrition, food and beverages, agriculture, biomaterials, and biopharma.   The pilot plant is designed to enable strong collaboration between 21st.BIO and customer teams during scaling. The facility is strategically located in the same building as the company's strain development laboratories, allowing for joint work on further improving the customers' production strains and fermentation processes.  Europe has an opportunity to bring this leading technology and know-how to benefit the world. Therefore, 21st.BIO's grand opening began with an exclusive roundtable, where twenty C-level participants from the political, financial, and industrial horizons had a lunch conversation over EU countries' leadership in the industrial scaling of biomanufacturing.   21st.BIO founders saw that too often; great bio innovations and molecules fail to translate into commercial success. The molecule innovation is ready and exciting, the market is there, but production costs most often have remained too high for the products to go mainstream and hence have real relevance for the world.   21st.BIO is now making the most advanced and most productive production technology and know-how available to innovators in industrial biotech as well as global food majors for bulk products to be produced via fermentation. The pilot facility will support customers' journey from the lab to large scale manufacturing, but the journey towards industrial biomanufacturing does not stop there. During the inauguration, senior leaders from key players of the financial, political, and industrial sectors participated in a roundtable discussion on what it will take to start building the first large-scale protein factories with all the benefits of industrial manufacturing to cost and efficiency.    ]]> https://agrospectrumasia.com/news/160/2081/singapores-smart-researchers-pioneer-sensor-multiplexing-for-real-time-decoding-of-plant-stresses.html https://agrospectrumasia.com/news/160/2081/singapores-smart-researchers-pioneer-sensor-multiplexing-for-real-time-decoding-of-plant-stresses.html Fri, 26 Apr 2024 11:15:39 +0530 Leveraging the real-time insights from nanosensor multiplexing, researchers have formulated a mathematical model Researchers from the Disruptive & Sustainable Technologies for Agricultural Precision (DiSTAP) Interdisciplinary Research Group (IRG) of Singapore-MIT Alliance for Research and Technology (SMART), MIT’s research enterprise in Singapore, in collaboration with Temasek Life Sciences Laboratory (TLL) and Massachusetts Institute of Technology (MIT), have developed a cutting-edge nanosensor that allows for the real-time monitoring of salicylic acid (SA) during the early stages of stress response. SA is a crucial plant hormone for growth, development, and stress response to pathogens, temperature, drought, salinity, metals, UV light, and osmotic stress. The researchers also pioneered a method to multiplex, or combine, this sensor with others for simultaneous and real-time tracking of multiple plant hormone profiles and chemical signals. This insight into the complex communication within stressed plants is vital in cultivating crops that are resilient to various stressors, including climate change. Traditional methods of stress detection in plants are reliant on laborious lab tests, time-consuming, and both destructive and disruptive to plant growth, while emerging technologies like chlorophyll fluorescence and hyperspectral imaging focus on the metabolic changes that occur when reparative measures are limited and only after the initial stress perception and signalling. SMART researchers achieved double breakthroughs in plant health monitoring. Firstly, the development of the first-ever nanosensor, validated in-planta in living pak choi (commonly known as Chinese cabbage), that specifically detects SA, a plant hormone key in mediating plant stress response and adaptation. Secondly, the researchers also pioneered a method to combine this sensor with others, paving the way for simultaneous and real-time tracking of multiple plant chemical signals and stress markers during early stress stages, which can, in turn, enable earlier diagnoses and, ultimately, improve plant stress tolerance and mitigate crop losses due to environmental stress. This research and technology builds upon SMART DiSTAP's long-standing body of work with innovative plant sensors based on the concept of corona phase molecular recognition (​​CoPhMoRe) pioneered by the Strano Lab at SMART DiSTAP and MIT. This includes a breakthrough by DiSTAP in 2021 in the development of the first-ever nanosensor to enable rapid testing of synthetic auxin plant hormones;  followed by another world-first in 2023 with the first-ever nanosensor designed to detect and distinguish gibberellins (GAs) – a class of hormones important for plant growth. This success of the CoPhMoRe concept has now been further advanced with this latest development of a highly selective plant nanobionic sensor for SA through a distinct and unique process of design, synthesis and testing. ]]> https://agrospectrumasia.com/news/160/2057/adama-launches-new-multi-crop-broad-spectrum-fungicide.html https://agrospectrumasia.com/news/160/2057/adama-launches-new-multi-crop-broad-spectrum-fungicide.html Mon, 15 Apr 2024 11:22:32 +0530 For Improved Disease Control and Increased Yield ADAMA Ltd. has announced the launch of Maxentis, a new versatile fungicide that delivers reliable control over a broad range of diseases in wheat, barley, and oilseed rape, to increase yields and improve income. Maxentis delivers dependable control of Septoria, Yellow Rust, and Brown Rust in wheat; Leaf Blotch, Net Blotch, and Rust in barley; and Sclerotinia and Alternaria in OSR, helping bring peace of mind to farmers while simplifying and reducing the expense of their spray programs. In high potential wheat areas Maxentis can be used as a T1 application in a spray program with other fungicides, or as a standalone T1 or T2 broad spectrum product in lower-potential areas. The non-SDHI formulation makes it an excellent partner for spraying programs, allowing farmers the flexibility to use an SDHI combination at the critical flag leaf stage of the wheat. Two modes of action are combined to enhance the impact of Maxentis. This means that fungal diseases are controlled across multiple growth stages of the disease, resulting in greater efficacy and healthier crops. Maxentis improves yields, while the ability to control numerous diseases in multiple crops with a single product increases convenience, reduces complexity and lowers costs, resulting in increased income for farmers. “Farmers across Europe expressed a need for more versatile, broad label products that can serve multiple crops and combat a range of diseases, without requiring them to juggle a complicated mix of products,” says Alex Mills, Global Head of Fungicides at ADAMA. “We responded with the value innovation that is an integral part of ADAMA. Maxentis delivers dependable control of the most important diseases in wheat, barley, and OSR, in a single convenient product that’s ready to go when you are. Thanks to its flexibility and reliability, farmers can produce higher yields with less stress.” ]]> https://agrospectrumasia.com/news/160/2056/ginkgo-bioworks-acquires-agbiomes-platform-assets.html https://agrospectrumasia.com/news/160/2056/ginkgo-bioworks-acquires-agbiomes-platform-assets.html Mon, 15 Apr 2024 11:19:14 +0530 Creates one of the deepest and most advanced ag biological discovery and development platforms as well as a rich resource for the development of AI models for biological R&D. A leading platform for cell programming and biosecurity is being built by Ginkgo Bioworks. AgBiome's platform assets, including 115,000 fully sequenced and isolated strains, 500 million gene sequences, relevant functional data and metadata, and AgBiome's development pipeline, will be acquired by Ginkgo Bioworks.  As part of Ginkgo's acquisition of a Bayer agricultural biologicals R&D facility in 2022, these assets will be integrated into Ginkgo Ag Biologicals Services, which will expand Ginkgo's proprietary metagenomics database. The combined platform is one of the most advanced and comprehensive ag biological discovery and development platforms, along with a rich resource for developing AI models for biological research. AgBiome has worked on developing an extensive collection of biological products and technologies through its Genesis Discovery Platform since its founding in 2012. AgBiome has successfully commercialized multiple biological products, including the Howler and Theia product lines, which were not acquired. Over 8,000 geographically diverse environmental samples have been used by AgBiome to build a massive microbial strain library.  The isolates have been fully sequenced, resulting in a library of over 500 million unique gene sequences. A robust product concept pipeline, including a dozen product candidates with greenhouse or field validation, is also included as part of the acquisition — these validated assets provide a solid foundation for future collaborative programs, as well as a diverse resource of metagenomic data for genomic mining and artificial intelligence modeling. ]]> https://agrospectrumasia.com/news/160/2047/japanese-ministry-of-agriculture-grants-new-approval-for-broccoli-solutions.html https://agrospectrumasia.com/news/160/2047/japanese-ministry-of-agriculture-grants-new-approval-for-broccoli-solutions.html Fri, 12 Apr 2024 10:43:29 +0530 SmartFreshTM SmartTabsTM and SmartFresh ProTabs now approved for use on key crops grown in and exported to Japan AgroFresh Solutions, Inc., a global leader in post-harvest solutions for fresh produce, is pleased to announce the approval by regulatory authorities in Japan of 1-Methylcyclopropene (1-MCP), the active ingredient in SmartFresh, for use in broccoli and other key crops exported to Japan. This grants growers and exporters the option to now manage the quality of their produce using two products from the SmartFresh™ Quality System: SmartFresh SmartTabsTM and SmartFresh ProTabs. The measure represents a significant advance for the fresh produce industry, offering exporters an additional tool to help ensure the quality and freshness extension of fruit and vegetables during transportation and storage. This expansion also unlocks opportunity as broccoli is considered a highly valued crop and Japan represents a growing market for broccoli consumption. “We understand broccoli will be added to the agriculture ministry’s list of important ‘designated vegetables’ that are consumed in mass quantities in Japan. We are excited to support local broccoli growers in bringing high-quality produce to market,” said Masami Shinozaki, Commercial Manager for AgroFresh in Japan. “This approval in Japan is a significant milestone, opening new opportunities for exporters in Latin America,” said Narciso Vivot, Commercial Director of AgroFresh in Latin America. “We are excited to offer innovative solutions that not only address the high standards of product efficacy but also sustainably deliver an abundant supply of quality fresh produce around the world.” SmartFresh technology helps to maintain the color, hydration and crispness of broccoli and many other approved crops, and extend its freshness, offering growers and packers increased flexibility in storage and transport and ultimately leading to increased revenue potential. Moreover, SmartFresh technology can eliminate the need for ice during transportation, reducing costs and environmental impact through water use and energy needs for cold storage. AgroFresh pioneered the commercialization of 1-MCP in 2003, which has come to be known as its flagship product, SmartFresh. SmartFresh technology has already revolutionized the post-harvest treatment of numerous crops in Japan, including apple, pear, kiwifruit, persimmon and potato. The approval for use on broccoli is the result of a review and update of freshness solution application use for produce. There are currently 14 vegetables, on Japan’s list of “designated vegetables.” ]]> https://agrospectrumasia.com/news/160/2036/bti-unveils-state-of-the-art-plant-high-throughput-phenotyping-facility.html https://agrospectrumasia.com/news/160/2036/bti-unveils-state-of-the-art-plant-high-throughput-phenotyping-facility.html Mon, 08 Apr 2024 11:19:28 +0530 New facility holds significant potential for delivering unparalleled insights into plant growth, development BTI announce the opening of its cutting-edge plant phenotyping facility, PhenoSight. This new facility holds significant potential for delivering unparalleled insights into plant growth, development, and response to environmental conditions. “The opening of this facility marks a significant milestone in our research capabilities at BTI,” shared Dr. Magdalena Julkowska, Assistant Professor at BTI and lead of the PhenoSight facility. “With this state-of-the-art technology, we are poised to make further groundbreaking discoveries in plant biology and contribute to addressing pressing global challenges such as food security and environmental sustainability.” The PhenoSight facility is equipped with advanced imaging capabilities designed to accelerate the pace of scientific discovery in plant biology. The facility includes a high-throughput imaging system capable of analyzing up to 64 large plants or 1280 smaller plants simultaneously. This system integrates advanced chlorophyll fluorescence and RGB imaging techniques to extract real-time data on plant health and vigor, enabling researchers to precisely measure plant height, area, and digital biomass. Beyond its cutting-edge technology, PhenoSight emphasizes practical applications for research. The vast data sets generated by PhenoSight can be analyzed using advanced computational methods, enabling researchers to uncover hidden patterns and make predictions in plant biology and genetics.  “As we celebrate BTI’s centennial, this new facility stands as a testament to the Institute’s dedication to innovation and excellence in plant science research,” said Dr. Silvia Restrepo, President of BTI. “We are excited to continue pushing the boundaries of plant science and making meaningful discoveries that have a positive impact on our world.” ]]> https://agrospectrumasia.com/news/160/1983/vietnam-partners-with-iaea-to-leverage-atomic-energy-for-sustainable-agricultural-development.html https://agrospectrumasia.com/news/160/1983/vietnam-partners-with-iaea-to-leverage-atomic-energy-for-sustainable-agricultural-development.html Mon, 25 Mar 2024 10:54:37 +0530 MARD has developed two projects by applying mutation technology and biotechnology to breed some key irises (peanuts, soybeans, oranges), rice varieties with high yield and quality and more Vietnam's Ministry of Agriculture and Rural Development (MARD), Deputy Minister Phung Duc Tien had meeting with Hua Liu - Deputy General Director of the International Energy Agency (IAEA) to exchange results of cooperation between the agricultural sector and the IAEA and propose priorities for cooperation in the future. Speaking at the meeting, Deputy Minister Phung Duc Tien said that Vietnam's Agriculture sector highly appreciates the results of cooperation with the IAEA, especially in Vietnam's role as a member of the Council of Governors of the Agency. World Atomic Energy Agency on 3rd week of March. Vietnam's agricultural sector has had very effective cooperation with the IAEA in applying nuclear technical advances to serve industry development such as: Technical measures for insect sterilization (dragon fruit flies) bring about Much better productivity and production efficiency Applying mutagenic nuclear technology to select and create new rice varieties adapted to drought, salinity, flooding and applying radioactive isotopes to improve the efficiency of nitrogen fertilizer use in main vegetable growing areas Providing technical support, molecular biology equipment to screen mutant breeds, research equipment to diagnose animal diseases, diseases transmitted from animals to humans and transmitted across borders, increasing Strengthen testing capacity of key laboratories, capacity training for staff, and study tours. In addition, the two sides also cooperate in building a cooperation network between countries and agencies to improve capacity and share experiences to have more effective applications of nuclear technology for intervention. industry in the context of climate change and current disease risks. Currently, the Agriculture industry is very interested in using atomic technology to create mutations for breeding. The Ministry of Agriculture and Rural Development has developed two projects: Applying mutation technology to breed some key irises (peanuts, soybeans, oranges); Application of mutation and biotechnology to create rice varieties with high yield and quality, chaired by Viet Dien. In the future, the Ministry of Agriculture and Rural Development will coordinate more closely with the Ministry of Science and Technology to continue reviewing and conducting research on applying high technology to the agricultural sector more effectively. Deputy Minister Phung Duc Tien believes that with effective cooperation, Vietnam's Agriculture sector will better adapt to climate change and disease risks, contributing to the sustainable development of Vietnam's Agriculture sector in the near future. next. ]]> https://agrospectrumasia.com/news/160/1936/biome-makers-worlds-largest-soil-database-reaches-over-24m-microorganisms-paired-with-ai-to-decode-soil-biology.html https://agrospectrumasia.com/news/160/1936/biome-makers-worlds-largest-soil-database-reaches-over-24m-microorganisms-paired-with-ai-to-decode-soil-biology.html Fri, 08 Mar 2024 10:20:59 +0530 Biome Makers, further solidifying its position as a global leader in soil genomics Biome Makers, a global soil genomics company, announces its soil database has surpassed 24M microorganisms, further expanding the world's largest database of soil data paired with AI. As this powerful database grows, it continuously enhances its ability to feed actionable intelligence to the industry, critical to recovering soil health and growing more resilient crops and nutritious food.  Housed inside Biome Makers’ BeCrop® Technology, an AI tool sifts through millions of microorganism references and answers the most impactful agronomical questions, such as detecting disease risks, predicting yield improvements, and evaluating adoption of regenerative agriculture. The soil data includes soil samples collected across six continents and 56 countries over the last decade.    “Being the sole firm in the world that can provide the most accurate predictions and recommendations for specific soil and crop conditions for the agricultural industry,” states Alberto Acedo, Co-Founder and CSO at Biome Makers. Biome Makers’ soil intelligence has positively impacted more than 21,000 farmers on their sustainability journey and over 2,000 agribusinesses, including Syngenta, Bayer, UPL, among others, leading to enhanced yield improvements and reduced on-farm costs.  "As an investor in Biome Makers, we’re happy to see the company's soil database surpassing 24 million microorganisms, further solidifying its position as a global leader in soil genomics. This milestone underscores Biome Makers' commitment to providing actionable intelligence to the agricultural industry, ultimately leading to improved soil health and more resilient crops," states Ting-Ting Liu of Prosus Ventures. The company’s technology offers valuable insight for ag-input manufacturers and retailers in developing and recommending the right ag-input products, in addition to assisting other industries like Consumer Packaged Goods (CPGs) companies in building supply chain resilience and addressing scope three emissions. “Our ability to integrate the world's largest soil database with industry-leading technology means that we can support the whole agroecosystem with precise recommendations that ultimately result in improved yield, lower costs, and provide a clear path forward to the future of sustainable farming,” states John Appel, Global Head of Commercial at Biome Makers. Biome Makers is on a mission to empower farmers and recover soil health worldwide. As a part of this commitment, the company is continuing to open this technology through API connection, making it accessible to researchers, scientists, and industry experts to unlock the potential of soil data and create a more sustainable and resilient future for the planet ]]> https://agrospectrumasia.com/news/160/1890/origin-agritech-achieves-breakthrough-in-hybrid-corn-breeding-by-incorporating-wild-genes.html https://agrospectrumasia.com/news/160/1890/origin-agritech-achieves-breakthrough-in-hybrid-corn-breeding-by-incorporating-wild-genes.html Wed, 28 Feb 2024 09:22:02 +0530 The integration of the wild corn gene marks the world's first instance of using genetics from wild corn Origin Agritech Ltd., a leading Chinese agricultural technology company, has achieved a breakthrough development in its commercial corn hybrid offerings. Origin Agritech has successfully integrated a gene from wild corn into one of its elite commercial corn hybrids for the first time in the industry. This approach represents a significant scientific milestone and sets a new benchmark for crop yield performance and efficiency. The integration of the wild corn gene marks the world's first instance of using genetics from wild corn—a type of grass—to enhance the performance of commercial corn hybrids. This innovative genetic modification has improved plant type and photosynthesis efficiency, enabling the hybrid to achieve higher yields by supporting increased plant density per acre. One of Origin Agritech's mainstay commercial hybrids, which has been a market leader for over 20 years due to its superior performance, has been the focus of this enhancement. The improved version of this hybrid can now be planted at a 10-15% higher density, offering a potential yield increase of more than 10%. This advancement is expected to drive the new hybrid to replace the current version within two years, further solidifying Origin Agritech's market share and leadership in the agricultural sector. Dr. Gengchen Han, Chairman and CEO of Origin Agritech, stated, "By harnessing the untapped potential of wild corn genes, we have significantly improved our hybrid's performance, setting a new standard for efficiency and yield in the industry. We anticipate the enhanced hybrid will replace its predecessor and capture more market share with its superior performance and adaptability." Origin Agritech is dedicated to leveraging cutting-edge biotechnological research to develop crops with higher yields, improved nutritional profiles, and better adaptability to environmental challenges. This latest innovation underscores the company's role as a leader in the global agritech industry and its commitment to enhancing food security and farming efficiency worldwide. ]]> https://agrospectrumasia.com/news/160/1825/ntu-singapore-scientists-develop-artificial-worm-gut-to-break-down-plastics.html https://agrospectrumasia.com/news/160/1825/ntu-singapore-scientists-develop-artificial-worm-gut-to-break-down-plastics.html Wed, 14 Feb 2024 08:09:00 +0530 Innovative and scalable method to accelerate plastic biodegradation A team of scientists from Nanyang Technological University, Singapore (NTU Singapore) have developed an artificial ‘worm gut’ to break down plastics, offering hope for a nature-inspired method to tackle the global plastic pollution problem. By feeding worms with plastics and cultivating microbes found in their guts, researchers from NTU’s School of Civil and Environmental Engineering (CEE) and Singapore Centre for Environmental Life Sciences Engineering (SCELSE) have demonstrated a new method to accelerate plastic biodegradation. Previous studies have shown that Zophobas atratus worms – the larvae of the darkling beetle commonly sold as pet food and known as ‘superworms’ for their nutritional value – can survive on a diet of plastic because its gut contains bacteria capable of breaking down common types of plastic. However, their use in plastics processing has been impractical due to the slow rate of feeding and worm maintenance. NTU scientists have now demonstrated a way to overcome these challenges by isolating the worm’s gut bacteria and using them to do the job without the need for large scale worm breeding. University is aiming to fostering innovation and translating research into practical solutions that benefit society under its NTU2025 five-year strategic plan. NTU Associate Professor Cao Bin at the School of CEE and Principal Investigator at SCELSE said, “A single worm can only consume about a couple of milligrams of plastic in its lifetime, so imagine the number of worms that would be needed if we were to rely on them to process our plastic waste. Our method eliminates this need by removing the worm from the equation. We focus on boosting the useful microbes in the worm gut and building an artificial ‘worm gut’ that can efficiently break down plastics.” Developing an artificial worm gut To develop their method, the NTU scientists fed three groups of superworms different plastic diets - High-density polyethylene (HDPE), Polypropylene (PP) and Polystyrene (PS) - over 30 days. The control group was fed a diet of oatmeal. The NTU scientists selected the plastics as they are among the most common plastics in the world, used in everyday items like food boxes and detergent bottles. HDPE is a type of plastic known for its high-impact resistance, making it difficult to break down. After feeding the worms plastic, scientists extracted the microbiomes from their gut and incubated them in flasks containing synthetic nutrients and different types of plastics, forming an artificial ‘worm gut’. Over six weeks, the microbiomes were left to grow in the flasks at room temperature. Increase in plastic-degrading bacteria The scientists found that compared to the control group, the flasks which contained the gut microbiomes from the plastic-fed worms showed a significant increase in plastic-degrading bacteria. Furthermore, the microbial communities colonising the plastics in the flasks were simpler and more tailored to the specific type of plastic than the microbes found on plastics that had been fed directly to the worms .  When the microbial communities are simpler and targeted to a specific type of plastic, this translates to  potential for more efficient plastic degradation when used in real-life applications. First author of the study Dr Liu Yinan, Research Fellow at the School of CEE and SCELSE, said, “Our study represents the first reported successful attempt to develop plastic-associated bacterial communities from gut microbiomes of plastic-fed worms. Through exposing the gut microbiomes to specific conditions, we were able to boost the abundance of plastic-degrading bacteria present in our artificial ‘worm gut,’ suggesting that our method is stable and replicable at scale.” The researchers say their proof-of-concept lays the foundation for developing biotechnological approaches that use worms' gut microbiomes to process plastic waste. For their next steps, the researchers want to understand how the bacteria in the superworm's gut break down the plastics at the molecular level. Understanding the mechanism will help scientists engineer plastic-degrading bacterial communities to break down plastics efficiently in the future. ]]> https://agrospectrumasia.com/news/160/1996/usda-aphis-issues-regulatory-status-review-responses-for-four-gm-crops.html https://agrospectrumasia.com/news/160/1996/usda-aphis-issues-regulatory-status-review-responses-for-four-gm-crops.html Thu, 01 Feb 2024 10:43:00 +0530 The U.S. Department of Agriculture’s (USDA) Animal and Plant Health Inspection Service (APHIS) recently reviewed four plants modified using genetic engineering to determine whether they posed an increased plant pest risk relative to non-modified comparators:  GDM Seeds, modified soybean for drought tolerance. BioHeuris, modified soybean for herbicide resistance. Michigan State University, modified potato for lowered glucose and fructose in tubers. ZeaKal, modified soybean for increased seed oil and protein.  APHIS found these modified plants were unlikely to pose an increased plant pest risk compared to other cultivated plants. As a result, they are not subject to regulation under 7 CFR part 340. From a plant pest risk perspective, these modified plants may be safely grown and bred in the United States ]]> https://agrospectrumasia.com/news/160/1750/soil-health-institute-shi-develops-smart-slakes-app-to-detect-soil-health-indicators.html https://agrospectrumasia.com/news/160/1750/soil-health-institute-shi-develops-smart-slakes-app-to-detect-soil-health-indicators.html Tue, 23 Jan 2024 10:44:16 +0530 Soil Health Institute (SHI) has released a free phone application, Slakes, to enable farmers to measure aggregate stability: one of soil health's most important indicators. In addition to being more resistant to wind and water erosion, soils with greater aggregate stability also capture, infiltrate, and store water more effectively, contributing to improved water management and agricultural productivity. The Slakes app uses a smartphone camera to take a picture of three dry soil aggregates before and after exposing them to water for 10 minutes. The app then automatically calculates an aggregate stability value. Weaker aggregates will slake (or break apart) more easily, while stronger aggregates will slake less, indicating better soil aggregation and healthier soil. SHI envisions that this application will be used by the public, K-12, and college educators in their curricula, as well as conservation professionals, farmers, advisors, and industry/policy stakeholders who are interested in quantifying the impact of management on soil health. SHI recommends measuring aggregate stability using the Slakes app as part of a minimum suite of measurements to assess management induced changes in soil health. Aggregate stability index values from Slakes can be compared across management practices to measure improvements in soil health. A partnership with the University of Sydney and generous funding from the Wells Fargo Foundation and The Ida and Robert Gordon Family Foundation enabled Slakes to be available on Google Play and the App Store. The Soil Health Institute (SHI) is a global non-profit with a mission of safeguarding and enhancing the vitality and productivity of soils through scientific research and advancement. SHI aims to enable farmers and ranchers to grow quality food, fiber, and fuel using soil health systems that sustain farms and rural communities, promote a stable climate and clean environment, and improve human health and well-being. Accordingly, the Institute brings together leaders in soil health science and the industry to conduct research and empower farmers and other landowners with the knowledge to successfully adopt regenerative soil health systems that contribute economic and environmental benefits to agriculture and society. ]]> https://agrospectrumasia.com/news/160/1734/global-agri-food-advancement-partnership-gaap-invests-in-biotech-startup-proxima-research-development.html https://agrospectrumasia.com/news/160/1734/global-agri-food-advancement-partnership-gaap-invests-in-biotech-startup-proxima-research-development.html Thu, 18 Jan 2024 08:23:00 +0530 Proxima has developed proprietary technology to better isolate, characterize, and engineer microbes for applications within agriculture, food, and pharma Saskatchewan's Global Agri-Food Advancement Partnership (GAAP) has made an undisclosed investment round into Proxima Research and Development in Canada and to expand in Canadian agriculture market. Proxima has developed proprietary technology to better isolate, characterize, and engineer microbes for applications within agriculture, food, and pharma. Proxima offers unique microbial solutions along with developing pro-priority technology solutions. Proxima has a vibrant and diverse R&D program which focuses on the isolation and genetic characterization of microbes with applications in food, biofuel, bioproducts, and pharmaceuticals. These bioprospecting activities support numerous objectives including the discovery and commercialization of novel microorganisms. A prominent example of Proxima’s work in this area is the development of new yeast strains for brewing applications, providing the means for brewers to develop new and exciting beer varieties and bring them to consumers around the world. Global Agri-Food Advancement Partnership (GAAP) is a privately run and operated agri-food investment incubator looking for cutting-edge technologies from early and rapid-growth companies seeking to improve efficiency, sustainability and profitability within the global agriculture and food sector. This investment came out of GAAP’s strong relationship with Ag-West Bio, Saskatchewan’s bioscience industry association in terms of support, mentorship, and investments. Dr. Zachery Belak, CEO and co-founder, and Iain Wallace, CSO and co-founder, explains "Ag-West Bio’s on-going support and participation in GAAP’s incubator will help accelerate Proxima business to the next stage. We are excited about this investment from GAAP because of the access to advanced equipment and facilities that it will provide”. ]]> https://agrospectrumasia.com/news/160/1723/fao-releases-15-case-studies-on-the-use-of-biotechnologies-to-meet-the-needs-of-smallholders.html https://agrospectrumasia.com/news/160/1723/fao-releases-15-case-studies-on-the-use-of-biotechnologies-to-meet-the-needs-of-smallholders.html Wed, 17 Jan 2024 12:22:44 +0530 The Food and Agriculture Organization (FAO) has released a compilation of case studies showcasing the impactful use of agricultural biotechnologies to meet the needs of smallholders in developing countries, marking a significant step forward in the global efforts to achieve a sustainable agriculture and food systems. Agricultural biotechnologies, ranging from low-tech tools like artificial insemination and tissue culture to high-tech methods such as whole genome sequencing, have emerged as a crucial part of the toolbox for transforming food systems. Recognizing their potential, FAO has been actively promoting knowledge sharing and innovation in agriculture through the application of biotechnologies. The report covers 15 case studies that highlight successful applications of biotechnologies in diverse sectors, including crops, livestock, fisheries, forestry, and agro-industry, and a wide range of species, world regions and production systems, emphasizing that biotechnology extends beyond genetically modified organisms (GMOs) and is applicable to smallholders in developing countries. Collecting experiences worldwide, the case studies demonstrate how biotechnologies contribute to increased productivity, improved livelihoods, disease management, and the conservation of genetic resources essential for sustainable smallholder production systems. One of the key messages emerging overall from the report, is the need for farmers to increase their yields while equally facing the current and future challenges of climate change. Which are the ingredients for success? The report identifies four: Partnerships Long-term commitment Government support Good communication FAO also anticipated that these case studies, presented in the context of a rapidly evolving field, will serve as a source of inspiration and guidance for those seeking to harness biotechnologies for the benefit of smallholder farmers ]]> https://agrospectrumasia.com/news/160/1713/cibus-announces-major-breakthrough-in-wheat-regeneration-from-single-cells.html https://agrospectrumasia.com/news/160/1713/cibus-announces-major-breakthrough-in-wheat-regeneration-from-single-cells.html Thu, 11 Jan 2024 14:52:58 +0530 Cibus intends to develop a family of traits to address the most significant challenges faced by farmers globally for wheat, focusing initially on disease resistance and nitrogen use efficiency. Cibus, Inc., a leading agricultural technology company that develops and licenses plant traits to seed companies, announced that the Company has successfully regenerated plants from single cells in a wheat cultivar. This is a major breakthrough for Cibus as well as for the industry. This is the third crop toward Cibus’ goal to develop single cell models for the five major crops (canola, rice, wheat, soybean and corn) for the benefit of seed companies and farmers – Cibus already has High Throughput Breeding systems in two crops (canola and rice) and a five-trait pipeline across these two crops. Given this breakthrough, Cibus intends to develop a family of traits to address the most significant challenges faced by farmers globally for wheat, focusing initially on disease resistance and nitrogen use efficiency. Nitrogen use efficiency is a need in many crops, but particularly for wheat with its enormous, cultivated acreage. A nitrogen use efficiency trait would have the potential to materially reduce the carbon footprint of the crop while offering better yield with similar fertilization. Fungal diseases cause a significant economic impact in wheat production with cereals representing the largest fungicide market. Development of disease resistance traits in wheat offer the promise of protecting yield potential while reducing fungicide use. We are encouraged that we will be able to address the major diseases in wheat. Finally, this platform enables the development of improved wheat quality traits, potentially reducing or eliminating allergens such as gluten and even further improvement of the Company’s high fiber wheat. Wheat is one of the world’s most cultivated crops, and one of the major crops grown in North and South America. It is a staple in many diets and is responsible for a fifth of people’s caloric intake, making it one of the world’s most important crops. Initially sequenced a mere five years ago, wheat genomes are some of the largest of all crops, having more than 16 billion letters (compared to rice with about one billion letters that was sequenced in 2002 and five times larger than the human genome). They are also very complex with durum wheat comprising the fusion of two genomes and bread wheat from the fusion of three. “I am so impressed with our entire team, which was able to achieve this important milestone a year ahead of schedule, opening up the potential to accelerate trait development in one of the world’s most cultivated crops,” added Noel Sauer, Senior Vice President, Research and Development. “Further, by working with seed company customers, this achievement will enable prototyping productivity and quality traits to address this crop’s key challenges potentially providing farmers with new tools to manage their farm and improve their profitability.” “This breakthrough represents a significant milestone for our business. Our long-term goal is to develop a scalable high-speed breeding production system that can develop and produce traits for any seed company servicing any of the five major crops (canola, rice, wheat, soybean, and corn),” said Rory Riggs, Co-Founder, Chairman, and CEO of Cibus. ]]> https://agrospectrumasia.com/news/160/1711/bio-nutrients-poised-to-be-a-key-ingredient-in-successful-farming-in-2024.html https://agrospectrumasia.com/news/160/1711/bio-nutrients-poised-to-be-a-key-ingredient-in-successful-farming-in-2024.html Thu, 11 Jan 2024 09:47:18 +0530 Redox Bio-Nutrients CEO Darin Moon provides comments during a meeting at company headquarters in Burley, Idaho, regarding new technology to help agriculture Improving soil health and growing strong plants through bio-nutrition is gaining broad acceptance, and new breakthroughs in scientific research indicate a bright future for more progressive growers. Redox Bio-Nutrients is a longstanding leader in the bio-nutrition field. "The right way to go about plant nutrition and soil health is to deal with input and outcome. Novel scientific understandings will help growers radically increase nutrient efficiency and lower carbon emissions at the same time" said Darin Moon, CEO of Redox Bio-Nutrients.   Across the U.S. and abroad, Redox provides agriculture and turf producers with carbon-based, highly efficient nutrition with biostimulant properties. Quantifiable benefits from biostimulants include improved size and firmness for multiple crops, as well as dramatic nitrogen efficiency gains while maintaining strong crop yield. Redox Bio-Nutrients CEO Darin Moon said “understanding of bio-nutrients at a cellular level makes him even more optimistic for successful and sustainable farming, resulting in bountiful, nutritious food for consumers.  The key remaining step is a paradigm shift in agriculture, with more growers choosing efficient, effective bio-active inputs instead of high-volume more traditional fertilizer sources. ]]> https://agrospectrumasia.com/news/160/1709/singapores-biomed-strives-in-pathology-testing-tools-for-veterinary-care.html https://agrospectrumasia.com/news/160/1709/singapores-biomed-strives-in-pathology-testing-tools-for-veterinary-care.html Thu, 11 Jan 2024 09:23:33 +0530 BioMed Diagnostics, a leader in microbiological testing and a DCN Dx brand,  specializes in innovative, user-friendly testing tools for detecting infectious microorganisms in humans, animals, food, and the environment. Through their unique InTray and InPouch formats, BioMed streamline specimen collection, culture, and transport into a single device, offering impactful health solutions across various sectors. DCN Dx, based in Carlsbad, California, is a global leader in IVD CDMO and CRO services with specializes in creating tailored assay systems, consumables, and instruments for point-of-use applications, with a particular expertise in lateral flow assays. BioMed Diagnostics commitment to veterinary health with several key products, including: InTray® DM: An enriched dermatophyte medium for detecting dermatophytes from clinical specimens. Features a single exposure system with dynamic built-in components for user compatibility and ease of detection.  InPouch® TF-Feline: A highly selective prepared-culture media device for detecting feline Tritrichomonas foetus. Known for its cost-effectiveness and ease of use, this broth media device increases specificity by inhibiting growth of yeasts, molds, bacteria, and other micro-flora.  InTray® VS COLOREXTM Screen: The major target is the detection of urinary tract pathogens, but COLOREXTM Screen has a broader application as a general nutrient agar for the isolation of various microorganisms. It can also be used to differentiate various microorganisms in other infected areas (e.g., scars, wounds).  Mitzi Rettinger, Chief Revenue Officer at DCN Dx explains "BioMed’s range of diagnostic tools are designed to improve testing accuracy and efficiency in veterinary practices. Meeting face-to-face with experts and practitioners at VMX allows us to better understand and meet the evolving needs of the veterinary community." ]]> https://agrospectrumasia.com/news/160/1697/benson-hill-to-launch-five-soybean-varieties-in-2024-by-novel-breeding-program.html https://agrospectrumasia.com/news/160/1697/benson-hill-to-launch-five-soybean-varieties-in-2024-by-novel-breeding-program.html Mon, 08 Jan 2024 09:07:43 +0530 Aims to deliver Higher Protein and Improved Yield Potential with renewed soybeans recommoditions for animal feed & food. Benson Hill, Inc., an ag-tech company unlocking the natural genetic diversity of plants, announced that recent advances in its soybean breeding program will drive the doubling of its seed portfolio by 2025. The latest field evaluations on Benson Hill’s third generation of Ultra High Protein Low Oligosaccharides, non-GMO soybean varieties showed protein gains of 2% over the previous generation and achieved a yield gap of only 3 to 5 bushels per acre, compared with commodity GMO soybeans Benson Hill Chief Executive Officer Deanie Elsner also announced at FARMCON 2024 an expansion of its commercially available soybean portfolio for 2024, adding five value-added varieties to its lineup. Benson Hill previously offered about a dozen soybean seed varieties that deliver ultra-high protein, high-oleic and low-linoleic oils, and low-oligosaccharide quality traits. For the 2024 planting season, U.S. soybean farmers can choose from more than 20 varieties across several relative maturity groups. Benson Hill’s herbicide-tolerant Ultra High Protein soybean varieties are on track for commercial release in 2025, with acreage and further portfolio expansion expected in 2026. This is a major step in providing farmers options for weed control and enabling lower-cost, broadacre production of already advantaged Ultra High Protein soybeans for the feed industry. By leveraging deep insights on its proprietary soybean germplasm, Benson Hill is strategically positioned to drive seed innovation in broadacre opportunities for the aquaculture, pet food, swine and poultry markets – some 90% of the soy market. According to Elsner, the recent field evaluations support Benson Hill’s acceleration to an asset-light model focused on partnerships and licensing, including seed. “Over the last several years, we’ve discovered ways to boost soy protein by 8 to 10 percentage points over commodity, and there are more seed improvements coming in geographies relevant for poultry production,” Elsner told FARMCON attendees. “Benson Hill is well positioned to validate our products with customers and end users to create market demand and begin to scale our seed innovations across approximately 7 million acres by 2030.” The Company’s analysis of non-GMO, Ultra High Protein low oligosaccharide (UHP-LO) soybean varieties demonstrate novel attributes for poultry diets, swine rations, and pet food, opening up the broadacre animal feed opportunity for the Company in the next two to three years, including large U.S. feed markets representing a total addressable market of approximately 28 million acres. Research this fall confirmed a trifecta of product attributes with UHP-LO desired by animal nutritionists, processors, feed formulators, and farmers, including higher yields, higher protein levels and lower anti-nutritional factors. Benson Hill continues to expand its world-class soy protein expression data set. Field data from the Company’s R&D program, field trials, and its commercially planted acres are digitized to further refine the predictive capabilities of CropOS. The Company plans to share results on studies and feeding trials as they become available. ]]> https://agrospectrumasia.com/news/160/1679/philippines-to-launch-new-world-class-agri-genomics-center-in-partnership-with-koica-and-irri.html https://agrospectrumasia.com/news/160/1679/philippines-to-launch-new-world-class-agri-genomics-center-in-partnership-with-koica-and-irri.html Wed, 03 Jan 2024 07:49:50 +0530 The new UPLB Agricultural Genomics Research Center (AGRC) is part of a six-year collaborative venture with KOICA The University of the Philippines Los Baños (UPLB), the South Korean government through the Korea International Cooperation Agency (KOICA), and International Rice Research Institute (IRRI) are set to construct an on-campus agricultural genomics research facility to advance genome-based agriculture research and development capabilities in the country. The new UPLB Agricultural Genomics Research Center (AGRC) is part of a six-year collaborative venture with KOICA which involves the joint conduct of capacity building activities to strengthen academic partnerships between UPLB and Korean universities, and in turn, improve the country’s agricultural research competitiveness through the acceleration of agricultural science and technology collaborations and other innovative services. “The establishment of AGRC has a primary goal of a collaboration to initiate scientific cooperation between IRRI, the UP System, and South Korea through KOICA. As we lay the foundation of AGRC today, may it become a beacon for scientific progress and sustainability not only in the Southeast Asian region but also throughout the world,” said UPLB Chancellor Jose V. Camacho during his welcome remarks. The collaboration includes opportunities to earn doctoral degrees from Korean universities and an MS sandwich research program at IRRI targeting incoming and continuing qualified Filipino MS students enrolled at UPLB. As the technical partner for the project, IRRI has also developed ten advanced agricultural science internship programs and provides proper guidance on the application of genomics tools in real world plant breeding programs and will supervise and support program scholars to conduct high impact-research within the facility’s new laboratories and existing facilities in IRRI. “This facility is but one of the many steps that we will be taking together as we endeavor to develop more sustainable and efficient agricultural practices for farming communities all over the world. Ultimately, we hope that this space can foster scholars who can help farmers worldwide improve their competitiveness and productivity amidst global challenges” said IRRI Interim Director General, Dr. Ajay Kohli. Ahead of the construction of the actual facility, the capability enhancement and academic partnerships component of the program has benefitted more than 1,800 participants. In addition to providing seed funding, the Republic of Korea, through KOICA, will continue to dispatch experts to provide additional technical advice and assist in finalizing the center's operational plans and training. “With the support of IRRI, which has extensive technical experience on agricultural R&D, this project promises a strengthened science and technology adaptation in agriculture. KOICA strongly believes that today's collaboration will also contribute to the country’s agricultural competitiveness and improving food security in the Philippines,” said KOICA Vice President, Hon. Lee Yun Young. The Ambassador of Korea to the Philippines, Hon. Lee Sang Hwa noted in his speech that the groundbreaking event is a testament not only of the close partnership between Korea and the Philippines in the fields of agriculture and innovation, but also a significant move toward addressing food security, poverty and rural community development in the Philippines. For his part, UP President Atty. Angelo Jimenez, emphasized that science and research should be of service to the Filipino people and that the upcoming AGRC is a testament to that. Once completed, the AGRC will provide an environment which will complement the mission of the country in training and providing growth opportunities to scientists, collaborators, and partners while embracing diversity and inclusivity. ]]> https://agrospectrumasia.com/news/160/1668/singapores-nus-scelse-scientists-uncover-plant-hormone-that-can-boost-plant-growth-by-30.html https://agrospectrumasia.com/news/160/1668/singapores-nus-scelse-scientists-uncover-plant-hormone-that-can-boost-plant-growth-by-30.html Wed, 27 Dec 2023 11:07:29 +0530 Discovery holds great promise for sustainable food security across diverse soils and crops A study conducted by NUS and the Singapore Center for Environmental Life Sciences Engineering (SCELSE) uncovered the most powerful tool in nature's arsenal for combating agricultural challenges today: agro-microbials, or agro-chemicals of natural origin, that can enhance crop productivity and yield by enhancing synergy between crops and microbes. In a study conducted over five years from 2018, the scientists discovered that a well-known protective hormone typically released by plants above ground during periods of stress – a volatile organic compound (VOC) known as methyl jasmonate (MeJA) – possessed a hitherto unknown function. They found that MeJa served as a shared, possibly secret, language that allows the plant to communicate with the surrounding layers of microorganisms embedded in the soil.  The research team has made three important discoveries: Using a specially engineered airflow system, scientists have found, for the first time, that MeJA is released underground by the plant roots in a volatile form; The presence of volatile MeJA triggers and enhances the formation of biofilms in bacteria situated at a distance from the plant roots; and These bacteria in the biofilm release a different set of volatile compounds that can boost plant growth by up to 30%. Associate Professor Sanjay Swarup, who is a Principal Investigator at the Research Centre on Sustainable Urban Farming (SUrF) under the NUS Faculty of Science and a Deputy Research Director at SCELSE, said, “The impact of this discovery is manifold and key to sustainable agriculture. Harnessing these agricultural microbes will not only boost crop productivity, but also reduce the need for synthetic inputs and mitigate the environmental impact of modern farming practices.” Having discovered nature’s own way of communication between plants and beneficial microbes, the research team has filed a patent for the use of this novel application to enhance it to improve the resilience and productivity of agricultural systems. The upshot of this could be a new generation of agro-chemicals or nature-structured chemicals which can be used to enhance the benefits for plants. Agro-microbials can influence plant growth and address food security. Agro-microbials – and nature-based agrochemicals – are now emerging as a promising strategy for sustainable agriculture. Agro-microbials encompass microbial communities associated with crops, and they serve critical functions of plant growth promotion, disease prevention, and nitrogen fixation. They also help to keep the soil fertile by breaking down organic matter, recycling nutrients, and creating humus to retain moisture. Diverse communities of agro-microbials can be found inside biofilms, where they are embedded in a self-produced matrix. ]]> https://agrospectrumasia.com/news/160/1666/irri-develops-first-of-its-kind-speed-breeding-protocol-for-indica-and-japonica-rice.html https://agrospectrumasia.com/news/160/1666/irri-develops-first-of-its-kind-speed-breeding-protocol-for-indica-and-japonica-rice.html Wed, 27 Dec 2023 10:55:56 +0530 Follows SpeedFlower protocol Scientists from the International Rice Research Institute (IRRI) successfully developed a robust, first-of-its-kind speed breeding protocol that reduces the generation times required in a year for growing indica and japonica rice. The current rate of genetic gain attained in rice crops through breeding is inadequate to meet the increasing future rice demand of a growing population. The development of new varieties is further hindered by longer generation times and seasonal constraints. Through the SpeedFlower protocol, these factors will no longer impact the acceleration of varietal development, by reducing generation times by almost half which allows growing four to five generations of indica and japonica rice in a year. “We can now develop new high-yielding, climate-resilient, and nutritionally superior rice varieties in a much shorter duration. This is a major scientific step toward significantly boosting genetic gain in rice, ultimately contributing to global food security,” said program lead Drs Vikas Kumar Singh, Uma Maheshwar Singh and Pallavi Sinha.  The Speed Breeding technique The Speed Breeding (SB) technique has been introduced to effectively manage environmental factors and is suitable for short- and long-day crops, allowing it to be utilized throughout the year. As a result, SB has gained popularity as a method for advancing multiple generations per year. Using SB in glasshouses and controlled chambers has the potential to enhance breeding outputs for both short- and long-day crops. This is achieved by providing more controlled growth conditions, which work more uniformly for diverse germplasm and breeding materials compared to field conditions. The success of SB in various crops has led to the establishment of a state-of-the-art SpeedBreed facility at the ISARC in Varanasi, India. To achieve SB in rice, the facility has been customized with controlled growth parameters using fully enclosed walk-in growth chambers designed to optimize the SB protocol for all types of rice varieties without the need for tedious embryo rescue techniques and tiller removal. ]]> https://agrospectrumasia.com/news/160/1509/origin-agritech-unveils-rapid-gene-editing-method-and-nitrogen-efficient-corn-in-updated-deck.html https://agrospectrumasia.com/news/160/1509/origin-agritech-unveils-rapid-gene-editing-method-and-nitrogen-efficient-corn-in-updated-deck.html Wed, 01 Nov 2023 06:54:29 +0530 Origin Agritech Ltd., a leading Chinese agricultural technology company, has developed a new gene-editing method that significantly shortens back cross procedures from 4-5 years to just 1 year, and the creation of nitrogen-efficient corn to enhance crop health and potential yield. In crop seed biotechnologies, Origin Agritech’s phytase corn was the first transgenic corn to receive the Bio-Safety Certificate from China’s Ministry of Agriculture. Over the years, Origin has established a robust biotechnology seed pipeline including products with glyphosate tolerance and pest resistance (Bt) traits. Origin's elite hybrid corn (germplasm) use gene editing to turn on & off genes to create what customer wants (i.e. high protein). Furthermore it integrate GMO traits into new variety (herbicide and insectresistance) to make corn even better with higher yield. Nutritionally enhanced corn (NEC) eliminates the need for expensive additives in hog feed, doubles feedstock companies' margins while the Feedstock industry in China hits a $75 billion market. Origin Agritech produced GMO commercial seed in 2023 along with 2nd & 3rd generation BT & GT GMO corn in safety certificate approval process. Further its drought resistance GMO corn is in final stage of safety certificate approval to encourage large-scale commercial production of NEC corn in 2023. Going forward Origin Agritech will speed up Gene editing innovations using leading tech to create corn varieties to meet customers' needs. Future expansion will involve growing into vertically integrated Ag Company. ]]> https://agrospectrumasia.com/news/160/1348/australian-researchers-uncover-sclerotinia-stem-rot-facts-to-improve-resistance-in-canola.html https://agrospectrumasia.com/news/160/1348/australian-researchers-uncover-sclerotinia-stem-rot-facts-to-improve-resistance-in-canola.html Wed, 30 Aug 2023 11:06:03 +0530 The discovery could arm breeders with information on how to develop canola varieties with improved resistance against the disease. Australian researchers have discovered three genes associated with resistance to sclerotinia stem rot, marking a major step towards developing improved disease-resistant canola varieties for growers. The genes have links to sclerotinia stem rot susceptibility and resistance. Sclerotinia stem rot is a fungal disease which can significantly reduce the productivity of a grower’s canola crop. The discovery could arm breeders with information on how to develop canola varieties with improved resistance against the disease. Researchers from the Centre for Crop and Disease Management (CCDM), in collaboration with the New South Wales Department of Primary Industries (NSW DPI) and Agriculture and Agrifood Canada (AAFC) identified the genes. CCDM researcher and lead author Dr Toby Newman says the finding represents a major step in the development of tools that canola breeders can use to produce varieties with much improved resistance to sclerotinia stem rot. Dr Newman says their research used the model species Arabidopsis thaliana, which is in the same family of plants (Brassicaceae) as canola (Brassica napus). "It’s tricky to breed resistance to sclerotinia stem rot in canola because a broad range of genes contribute to susceptibility and resistance. We found two genes that make Arabidopsis more susceptible to the disease and one gene which increases resistance to it. Identifying these genes means we can infer that the corresponding genes in canola, are likely to react similarly, working to make the plant more susceptible or resistant, but this resistance is yet to be proven in this crop. Breeders can soon use this information to improve genomic selection accuracy to select for more resistant lines in their breeding program.” ]]> https://agrospectrumasia.com/news/160/1319/novel-software-package-to-democratize-epigenetic-data-in-plant-breeding.html https://agrospectrumasia.com/news/160/1319/novel-software-package-to-democratize-epigenetic-data-in-plant-breeding.html Tue, 22 Aug 2023 10:44:05 +0530 Sound Agriculture launched sounDMR, a software designed to reveal epigenetic variation in plant populations.  A team of researchers at Sound Agriculture has released a new software package, called sounDMR, designed to reveal epigenetic variation in plant populations. The findings, published today in Scientific Reports, showcase the potential of sounDMR to enable high-resolution epigenetic profiling of plants without the need for expensive equipment or complex library preparations, fostering new opportunities in plant breeding. Epigenetics is the study of heritable changes in gene expression that occur without changes to the underlying DNA sequence. DNA methylation is one of the key mechanisms through which epigenetic variation occurs. It plays an important role in regulating gene expression across all life forms, with a particular significance in plants. However, it is only recently that long and ultra-long read sequencing technologies have enabled the study of methylation patterns in complex genomic regions by accurately identifying 5mC methylation even in non-CG contexts. Using Oxford Nanopore technology, these methods can be applied to non-model organisms, such as crops, even in the absence of large sequencing facilities. The research team, led by Travis Bayer, PhD and Jack Colicchio, PhD, used sounDMR to effectively replicate findings from the established gold-standard method for methylation sequencing called whole genome bisulfite sequencing (WGBS). In addition, the team was able to expand on these findings by using Oxford Nanopore's "adaptive sampling," which allowed for the targeted sequencing of approximately 400 specific genome regions. This data revealed that the known demethylating agent, zebularine, decreased methylation across the Arabidopsis thaliana genome and induced epigenetic variation, improving the understanding of its effects. "There are epigenetic variations in all plant systems that haven't been considered in breeding because of the difficulty in identifying these nuances," said Travis Bayer, PhD, co-founder and CTO, Sound Agriculture. "With nanopore sequencing technology, we now have an added level of insight to support breeding decisions that can improve agriculture outcomes." "Oxford Nanopore technology offers more comprehensive genomic insights, especially in DNA methylation. This is a great example of high-accuracy epigenetic insights in biological analyses being used to support new genomic discoveries for the benefit of agriculture" said Gordon Sanghera, CEO Oxford Nanopore Technologies. ]]> https://agrospectrumasia.com/news/160/1215/center-for-aquaculture-technologies-cat-unveils-shrimp-genetics-innovation-center-in-australia.html https://agrospectrumasia.com/news/160/1215/center-for-aquaculture-technologies-cat-unveils-shrimp-genetics-innovation-center-in-australia.html Wed, 26 Jul 2023 01:00:00 +0530 State-of-the-art facility features a cutting-edge genome editing lab and tank space, effectively quadrupling CAT’s shrimp research capacity. The global growth of the shrimp industry is placing significant pressure on producers to enhance efficiency and reduce mortality, presenting them with ongoing challenges. To facilitate research aimed at delivering impactful solutions, The Center for Aquaculture Technologies (CAT) is delighted to announce the opening of the Shrimp Genetics Innovation Center. This state-of-the-art facility features a cutting-edge genome editing lab and tank space, effectively quadrupling CAT’s shrimp research capacity. The facility’s opening sets the stage for revolutionizing shrimp genetic performance and accelerating next-generation breeding through the application of innovative genome editing techniques. The new facility at San Diego location, will establish a synergetic relationship between Shrimp Genetics Innovation Center and CAT Finfish Genetics Innovation Center. Genome editing represents the next frontier in genetic improvement; it allows for the precise and rapid recreation of changes that would occur in nature. CAT is committed to helping shrimp producers do more with less through the development and application of genome editing technology and methodology, which can solve problems that conventional breeding methods are unable to address and substantially accelerate the pace of genetic improvement. Matt Stone, Facility Manager, looks forward to benefiting clients, stating, “The increase in rearing and research capacity means we are even better prepared to deliver innovations to boost efficiency in the shrimp industry through genome editing. Our team is excited to be working in this new space and looks forward to helping clients achieve their goals.” Dr. John Buchanan, CEO, touched on the broader impacts of this move, stating, “With this investment, we have further solidified our position as a leader in the delivery of impactful genetic solutions to help shrimp producers feed the world more efficiently.” ]]> https://agrospectrumasia.com/news/160/1203/origin-agritech-secures-rmb-2-m-grant-for-building-germplasm-bank-in-xinjiang.html https://agrospectrumasia.com/news/160/1203/origin-agritech-secures-rmb-2-m-grant-for-building-germplasm-bank-in-xinjiang.html Fri, 21 Jul 2023 09:30:00 +0530 Secures $280,000 in grant by government Origin Agritech Ltd., an agriculture technology company, has been awarded a grant of RMB 2 million (approximately $280,000) from the Xinjiang government. The grant aims to support Origin's efforts to build a local Germplasm Bank in Xinjiang and the Company's contract growing of Nutritionally Enhanced Corn (NEC) in the region. Acclaiming government's support and endorsement of the Company's efforts, Dr. Gengchen Han, Chairman of Origin Agritech said that the "grant not only provides valuable resources for our work, but also serves as a significant validation of our efforts to modernize agriculture in China and contribute to regional food security". The Company believes that the grant signifies the government's commitment to modernizing the agriculture sector and signals the potential for future support for initiatives aimed at improving the agricultural landscape in China. Origin Agritech Limited, founded in 1997 and headquartered in Zhong-Guan-Cun (ZGC) Life Science Park in Beijing, is a leading Chinese agricultural technology company. In crop seed biotechnologies, Origin Agritech's phytase corn was the first transgenic corn to receive the Bio-Safety Certificate from China's Ministry of Agriculture. Over the years, Origin has established a robust biotechnology seed pipeline including products with glyphosate tolerance and pest resistance (Bt) traits. ]]> https://agrospectrumasia.com/news/160/1152/scientist-modify-algae-to-make-rare-antioxidants-in-extreme-environments.html https://agrospectrumasia.com/news/160/1152/scientist-modify-algae-to-make-rare-antioxidants-in-extreme-environments.html Fri, 07 Jul 2023 10:35:55 +0530 AzCATI and KAUST collaborative research develop genetically engineered algae to produce orange-red pigments that make sea food healthier Researcher’s at Saudi Arabia's King Abdullah University of Science and Technology (KAUST) have collaborated with the US based Arizona Center for Algae Technology & Innovation (AzCATI) at Arizona State University (ASU) are genetically engineering algal species to produce therapeutic antioxidant pigments unavailable naturally in nature. An Collaboration between AzCATI and KAUST aims to develop an orange-red antioxidant pigment from fully sequenced algae Cyanidioschyzon merolae incorporated with a gene encoding the pigment. These antioxidants are chemicals called carotenoids, which are yellow-orange-red pigments responsible for the colour of tomatoes and carrots, as well as the pink color of salmon and flamingos through diet.  The genetic modification causes the blue-green coloured alga to produce orange-red antioxidants like canthaxanthin and astaxanthin. Astaxanthin is a powerful antioxidant and has numerous health benefits and has the potential to make seafood healthier.  Introducing astaxanthin to the diets of animals such as farmed shrimp can improve their health and enhance their red colour. The carotenoid pigments can also be used as natural dyes for textiles and have wide nutraceutical and biopharmaceutical applications. The alga also contains a light-capturing blue pigment called phycocyanin which is used as a blue food colouring in confectionery and drinks. The scientists found production of canthaxanthin and astaxanthin did not reduce phycocyanin in the alga, meaning both blue and orange-red pigments can be produced together at once.  Dr. Kyle J. Lauersen, Assistant Professor of Bioengineering at KAUST and senior author of the study, says: “For the first time, genetic engineering has been used to change natural carotenoid pigments in a red alga. Genetic engineering of algae can help produce important natural chemicals like carotenoids sustainably. Algae has untapped potential as a sustainable solution which could benefit both the food and health industry, and the science shows it is possible to scale.” Growing algae requires optimal levels of sunlight, trace nutrients and carbon dioxide (CO2). The engineered algae in the study demonstrated tolerance to high levels of CO2 and high temperatures, which is relevant for growing in specific environments, for example, hot urban areas during summer months in Saudi Arabian or American deserts. As Cyanidioschyzon merolae is natively found in extreme environments with high temperatures, it is a promising candidate for local production in these areas. Dr. Peter J. Lammers, Research Professor at the School of Sustainable Engineering and the Built Environment at ASU and co-corresponding author of the study, adds: “These acid-loving red algae have great potential for safe and innovative industrial applications. Their ability to grow in acidified waste afford options for circular economics and renewable materials that could sustain future generations. Together with KAUST, our long-term goal is to eliminate waste and use bioengineering to benefit humans and nature simultaneously. This study is the first of many that will harness biochemical pathways to generate renewable options for chemicals used every day.” ]]> https://agrospectrumasia.com/news/160/1147/australian-researchers-discover-genes-in-barley-that-may-lead-to-higher-yields.html https://agrospectrumasia.com/news/160/1147/australian-researchers-discover-genes-in-barley-that-may-lead-to-higher-yields.html Fri, 07 Jul 2023 07:28:00 +0530 The findings suggest that hybrid breeding in wheat and barley can be facilitated by enhancing cross-pollination and boosting fertility, leading to an increase in grain yield. Researchers at Australia’s University of Adelaide’s Waite Research Institute have for the first time identified several genes in barley that could eventually lead to larger yielding crops. Research team employed genetic techniques and molecular biology to examine several historical multi ovary barley mutants. The discovery may lead to the identification of genes that boost fertility and enhance cross-pollination. It could pave the way for enhanced food security and a more sustainable agricultural future “Although the mutant varieties appeared to be quite similar when grown in the glasshouse, we found one type was more fertile than the others and was capable of producing up to three times the number of seeds than the other plants. The genes in that mutant variety of barley could hold the key to increasing the yield of cereal crops” said lead researcher Dr Caterina Selva, School of Agriculture, Food and Wine at University of Adelaide. The multiovary barley mutants have remarkable features compared to typical Australian barley varieties, producing extra female reproductive organs in each single flower. They were discovered in the 1980s, but this is the first time that the genes responsible for increasing fertility have been identified. Dr Selva believes these sequences obtained from the mutant varieties could be used to modify the flower structure of conventional barley, making it more receptive to hybrid breeding. “By mixing the mutant with other varieties of barley, we can create stronger, more resilient crops that produce higher yields in even the most challenging of environments,” she said. “This breeding process, known as hybrid vigour, is already used successfully in maize and rice. We can overcome barriers to cross pollination by using the more fertile, mutated plants to produce stronger barley and more of it" explained Associate Professor Matthew Tucker, School of Agriculture, Food and Wine, University of Adelaide. “Wheat and barley flowers are structured in a way that makes cross-pollination difficult. This research is an example of how changing one gene can have a positive effect on grain yields. We can overcome barriers to cross pollination by using the more fertile, mutated plants to produce stronger barley and more of it,” said Professor Matthew Tucker. “This is even more important in the face of rapid urbanisation, volatile international markets, and extreme weather conditions, which are making growing barley more challenging,” he added. Australia produces just over nine million tonnes of barley each year, the majority of which is exported to Asia. It is one of the nation’s most widely grown crops and covers around four million hectares of land from southern Queensland through to Western Australia.The research was published in the Journal of Experimental Botany  and could be used to help improve the agricultural industry both nationally and on a global scale. ]]> https://agrospectrumasia.com/news/160/1057/corteva-agriscience-harnesses-nature-to-unlock-plant-disease-resistance.html https://agrospectrumasia.com/news/160/1057/corteva-agriscience-harnesses-nature-to-unlock-plant-disease-resistance.html Tue, 13 Jun 2023 11:49:06 +0530 Research proves natural movement of disease resistance genes and the potential benefit of precise gene editing technology to support sustainability practices and improve farmer yields.   Corteva Agriscience announced publication of research confirming the natural movement of disease resistance genes within a corn plant's genome. The research has implications for the application of new breeding techniques to reduce the devastating impact of plant diseases while improving yield potential and crop resilience. Published in a recent issue of Molecular Plant Pathology, the findings reveal that gene editing tools such as CRISPR can mimic this naturally occurring process, unlocking the ability to relocate multiple disease resistance genes, speeding plant breeding progress, and delivering enhanced high-performing products to farmers. In March, Corteva announced that the early-stage use of proprietary gene editing technology to address several North American corn diseases was advancing through the company's R&D pipeline. Using CRISPR, the company can precisely co-locate disease resistance traits that already exist within the corn genome. With this recent peer-reviewed research, Corteva demonstrates that disease resistance genes move naturally to help plants fend off attacks from pathogens - but do so very slowly. "A plant deals with a wide variety of pathogens, prompting its genes to naturally move around in the genome to resist disease and increase survivability," said Wendy Srnic, Vice President Biotechnology, Corteva Agriscience. "However, this natural gene mobility occurs too slowly to effectively address the rapid growth of disease and climate-related pressures facing farmers around the globe. Through our research, we have validated the ability to mirror the movement of genes, enabling us to apply new breeding techniques to deliver seed that can better withstand field-level challenges." In 2021, Northern leaf blight, Southern rust, gray leaf spot and anthracnose stalk rot combined to cost North America corn growers more than 318 million bushels in production. By leveraging new breeding techniques, Corteva is not only simplifying disease management options for farmers but also improving on-farm sustainability by reducing the need for additional crop protection product applications to help combat disease pressure. "By innovating with advanced breeding techniques, we aim to create transformational change," added Srnic. "With these techniques, we can harness and replicate naturally occurring processes that accelerate the development of seeds with improved resilience and yield. We are committed to giving farmers more planting choices while continuing to safeguard our natural resources for generations to come." ]]> https://agrospectrumasia.com/news/160/1032/zhang-zhiqian-tidetron-founder-and-ceo.html https://agrospectrumasia.com/news/160/1032/zhang-zhiqian-tidetron-founder-and-ceo.html Thu, 08 Jun 2023 10:41:00 +0530 Zhang Zhiqian, Founder and CEO, Tidetron Bioworks Technology Co., Ltd., China The industrial transformation of agricultural raw materials into processed products for commercialization necessitates the application of synthetic biology during industrial production. Molecular rewriting will be an important component of plant synthetic biology. In addition to engineering microbes to have new abilities, synthetic biology enables agronomists to harness biological power to solve farming and agriculture concerns. By harnessing microorganisms as large-scale production platforms, synthetic biology can also reduce the demand for chemical fertilizers by optimizing nitrogen and phosphorous utilization as well as improve crop nutritional value. By allowing targeted DNA modifications within living plants or single cells, CRISPR tools can enable synthetic biology to reach its full potential. In addition to enabling precision agriculture, the synthetic biology industry has significant potential in processing Agri-food components, substances, and additives; however, infrastructure and production issues remain for mass production. In order to overcome the challenges associated with synthetic biology, Tidetron Bioworks Technology Co., Ltd. has developed a system from research and development to mass production and is among the first synthetic bio-manufacturing platforms in the world to achieve mass production of various substances. As a pioneer in the Agri-Food biotechnology sector, China's Guangzhou city headquartered Tidetron Bioworks Technology has contributed substantially with its remarkable growth trajectory and innovative approaches in the synthetic biology sector. Tidetron is poised to play a crucial role in shaping the industry's evolution to improve the global food system thereby. The acclaimed Tidetron Altra platform-based strain library and component library is a significant resource for Asia's Agri-Food biotech industry. Zhang Zhiqian, Founder and CEO of Tidetron Bioworks elaborates further on the precision Agri-bio manufacturing sector for tackling complex challenges through innovation. How can the precision Agri-biomanufacturing sector address complex challenges through innovation? Innovation is not a one-time fix but a continuous process of developing and improving technologies, practices, and approaches. While addressing complex challenges is also a long-term task. In contrast to conventional production methods, synthetic biology presents a new approach to manufacturing, yielding a low-carbon food source and mitigating the environmental impact associated with traditional methods. We found out that the exciting thing is that the innovation of synthetic biology has emerged as a game-changer in biomanufacturing, which offers a robust set of tools and technologies that enable us to engineer biological systems to produce a wide range of valuable products. And what is more exciting is that it may speed up the process from the lab through the super-factory from the experience of Tidetron Bioworks- the "CELL Factories" we built have the remarkable ability to generate a diverse range of substances. These advancements have the potential to enhance our quality of life substantially. What is the significance of synthetic biology in biomanufacturing as demonstrated by Tidetron Bioworks' groundbreaking biomanufacturing platform? As demonstrated by Tidetron Bioworks, the significance of synthetic biology in biomanufacturing is its ability to revolutionize the production of various substances. Tidetron Bioworkshas pioneered synthetic biology to achieve mass production in the biomanufacturing industry. The core competency lies in our proprietary technology platform-Tidetron Altra, which enables us to synthesize numerous substances that can only be produced in trace amounts or are limited by the characteristics of the native organisms or metabolic pathways. As a result, we can scale up the production of those challenging substances to synthesize in large quantities. Our technology has demonstrated strong versatility and has been validated on dozens of substances and platforms. In addition, we have forged strategic partnerships with esteemed research institutions, academic organizations, and industry experts. This collaborative approach empowers us to tap into cutting-edge research, leverage invaluable expertise, and access critical resources, alongside the significant increase of substances and synthesis yielding the research need. With tools like CRISPR-Cas and other gene-editing techniques, Tidetron Bioworks leverages microfluidics and directional evolution, which enables us to achieve significant mass production and synthesize a wide range of target substances. And by utilizing the innovative Tidetron Altra platform-based strain library and component library, Tidetron Bioworks has overcome challenges associated with transforming and applying scientific research achievements in an industrial setting. The comprehensive approach covers the entire chain from research and development to production, ensuring efficient and effective implementation. The SUPER-Factory established by Tidetron Bioworks further demonstrates our commitment to maximizing production capacity. With annual production exceeding 10,000 tons, we are focusing on the growing demands of industries while maintaining high-quality standards and meeting environmentally friendly needs. This scalability showcases the significance of synthetic biology in biomanufacturing, enabling large-scale production of valuable substances. We strive to provide integrated solutions for various industries, align with the global shift towards eco-friendly practices, and ensure biomanufacturing processes have a lower environmental impact. Could you share more about the honor of establishing the fastest-growing Agri Food Biotech company in China? A culture of innovation and collaboration lies at the heart of Tidetron Bioworks. By harnessing the immense power of synthetic biology, we have developed groundbreaking solutions that effectively tackle the complex challenges present in several industries in China. This strategic move has allowed us to stand out in the market. Also, through fruitful collaborations with renowned beverage and seasoning companies, we have made great strides in bolstering nutrition and championing public health. The cutting-edge Tidetron Altra—an exclusive platform boasting a vast strain variant library and comprehensive component repository- has empowered us to curate a strain variant library of unparalleled magnitude with millions of possibilities. In addition, guided by iterative improvements, we've proudly secured a portfolio of unique production strains exclusively owned by Tidetron Bioworks. Moreover, Tidetron Bioworks has attracted investment and secured funding from renowned venture capital firms and strategic partners alongside our successful business operations. This financial support has given us the necessary resources to scale operations, intensify research and development efforts, and expand production capabilities. It has also allowed us to attract top-tier talent, assembling a formidable team of exceptional scientists, engineers, and industry professionals. The unwavering commitment to sustainability has been pivotal in our success story. With the increasing global demand for eco-friendly and sustainable solutions, Tidetron Bioworks' emphasis on green mass production and environmentally conscious practices has deeply resonated with customers and industry stakeholders. This intense dedication to sustainability has fueled business growth and positioned us as a responsible and socially aware organization. What are the company's strategies for maximizing production efficiency and capacity over the long term? The first strategy is focused on New Services for R&D and Mass Production Integration. By integrating production and research systems, Tidetron is leveraging the Tidetron Altra platform-based strain library to facilitate collaboration and resource sharing. It enables us to reserve valuable data and resources and offer customized solutions across various stages, from material engineering to mass production applications. Additionally, Tidetron actively supports joint patent applications with different sectors, fostering innovation and breakthroughs in the application of synthetic biotechnology through collaborative research and development efforts. The second strategy centers around Intelligent Fermentation, which enables Green Mass Production. Tidetron Bioworks has perfected materials using a customized intelligent fermentation system to ferment and mass-produce the optimal strains rapidly. After meticulous separation and purification, the company achieves high-purity, highly active, and stable quality target materials. It is worth noting that Tidetron's factory boasts an annual production capacity exceeding 10,000 tons while with a low cost of energy consumption, pollution, and carbon emissions. ]]> https://agrospectrumasia.com/news/160/1031/agbiome-leverages-ginkgo-strain-optimization-services-to-optimize-agricultural-biological-pipeline.html https://agrospectrumasia.com/news/160/1031/agbiome-leverages-ginkgo-strain-optimization-services-to-optimize-agricultural-biological-pipeline.html Wed, 07 Jun 2023 10:26:45 +0530 Ginkgo leverages ultra high throughput encapsulated screening capabilities AgBiome®, Inc., a leader in global microbial innovation, and Ginkgo Bioworks, which is building the leading platform for cell programming and biosecurity, have collaborated to optimize the performance of products in AgBiome's pipeline of agricultural biologicals. Organizations developing next generation agricultural inputs can access Ginkgo's platform to accelerate discovery and deployment of new products. By leveraging Ginkgo's ultra high throughput encapsulated screening capabilities, AgBiome aims to provide growers with new and improved live microbial strain products. The biological crop protection market has significantly grown in recent years as growers have increasingly sought effective and sustainable alternatives to synthetic pest control products. By leveraging Ginkgo's suite of advanced biology tools, AgBiome aims to enhance the breadth and efficacy of novel biological products. AgBiome's crop protection products, discovered using its proprietary Genesis™ platform, are based on natural microbial strains that have undergone extensive testing and evaluation to ensure consistent performance. Ginkgo's ultra high throughput encapsulated screening technology makes it possible to search through up to 1 million strain variants in a single run and select the best performing candidates for further development. Built on nanoliter encapsulation technology, Ginkgo's screening capabilities provide nanoscale growth and assay compartments and make it possible to greatly reduce the screening time for large libraries. "We believe we can identify improved variants at massive scale, which can help deliver more potent agricultural biologicals and bring the next generation of products to market. Following the collaberation we seek to optimize live microbial strain products in their pipeline and provide even better solutions to growers around the world" said Magalie Guilhabert, Head of Ag Biologicals, Ginkgo Bioworks. "AgBiome is committed to creating the most effective crop protection products, and we are always looking for new technologies to enable better performance. We are excited to utilize Ginkgo's capabilities in ultra high throughput assay development to evolve the next generation of biologicals as we continue to provide growers with improved product efficacy" said Scott Uknes, Co-founder and Co-CEO of AgBiome. ]]> https://agrospectrumasia.com/news/160/1030/india-must-mainstream-gm-crops-for-climate-resilient-agriculture-dr-trilochan-mohapatra.html https://agrospectrumasia.com/news/160/1030/india-must-mainstream-gm-crops-for-climate-resilient-agriculture-dr-trilochan-mohapatra.html Tue, 06 Jun 2023 14:43:27 +0530 Experts from the agriculture sector discussed about in new approaches towards climate-resilient agriculture during the panel discussion on Climate-resilient Agriculture Technologies and Approaches in Asia’ during the launch event of B2B portal AgroSpectrum Asia organised by AgroSpectrum. The application of precision agriculture and genomics technology is essential for climate-resilient agricultural practices in India, said Dr Trilochan Mohapatra, Chairperson, of the Protection of Plant Varieties and Farmers Rights Authority (PPVFRA)). He was speaking in a panel discussion on Climate-resilient Agriculture Technologies and Approaches in Asia on the occasion of the launch event of the agrospectrumasia.com portal organised by Agrospectrum. Ashok Dalwai, CEO, National Rainfed Area Authority, Govt of India, Smita Sirohi, Joint Secretary – G20/BRICS & SCO, Ministry of Agriculture and Farmers’ Welfare, Govt of India, Pawan Agarwal, CEO Food Future Foundation, Dr C D Mayee, Former Chairman, Agricultural Scientists Recruitment Board, Govt of India was moderate the panel discussion. Ravi Boratkar AgroSpectrum Publisher and Managing Editor and Milind Kokje Chief Editor of AgroSpectrum were present on the stage. Dr C D Mayee, moderator of the panel discussion emphasised that though the impact of climate change is not seen at large scale, smallholder farmers are suffering badly due to the effects of climate change. In such a scenario, climate-resilient technologies for agriculture will help in mitigating the challenges of the agriculture sector on a large scale. Dr Mohapatra emphasised that mainstreaming GM crops (genetically modified) will be beneficial for farmers. Ashok Dalwai, CEO of, the National Rainfed Area Authority, said, “We need to restructure and reorient the Indian agricultural sector. We should adopt a new approach to the country’s agriculture for climate-resilient agriculture.    Smita Sirohi addressed the awareness approach in climate-resilient agricultural practices. She said, “We have to have a very systematic approach in agriculture. We are less prepared for climate-resilient agriculture, most countries are working on climate-resilient agriculture.” Pawan Agarwal suggested that India must focus on climate-resilient agricultural practices.    Ravi Boratkar explained the present scenario of the agriculture sector in Asia and the role of the agrospectrumasia website in bridging the gap between the Indian agri industry and the Asian agri market. Boratkar also added that the AgroSpectrum Asia portal provides information about the Asian agriculture market and the latest trends in the agri industry and also highlights the major activities in the R& D agriculture sector and analysis of agriculture markets in the APAC region. ]]> https://agrospectrumasia.com/news/160/1003/hong-kongs-agroforestry-group-expands-its-aquilaria-with-a-malaysian-rd-programme.html https://agrospectrumasia.com/news/160/1003/hong-kongs-agroforestry-group-expands-its-aquilaria-with-a-malaysian-rd-programme.html Thu, 01 Jun 2023 07:45:00 +0530 Aims to increase the growth of agarwood by accelerating the yield Hong Kong's Agroforestry Group has announced the expansion of its Aquilaria programme through collaboration with a Malaysian research and development company. The collaboration is driven by renowned scientific advisor Dr Baharuddin Salleh and includes Aquilaria inoculation and post-inoculation product development. In terms of inoculation, it is aimed specifically at increasing the success, speed and yield of agarwood in inoculated trees. Each stage in the inoculation process requires a different mixture of compounds. Agroforestry Group invests heavily in finding an optimal balance between performance enhancement and cost minimization.  Established in 2015, Agroforestry Group have applied their thirty years of private forestry management experience into the establishment and commercial development of durian and agarwood plantations, product distribution and sales. As an asset class, agriculture and forestry have expanded rapidly over the last decade. This is due to interest from risk-averse private investors attracted by the green credentials of the industry and the long-term high returns of agroforestry.  Paul Martin, Managing Director of Agroforestry Group, stated, "This collaboration has enhanced our research and development programme and has marked a significant milestone as we near the end of our inoculation research programme for Aquilaria trees planted in 2018 and 2019. By expanding our programme, we will be able to safeguard our ongoing research and development efforts as well as focus on post-inoculation product development. Aquilaria-based products include tea, fragrances, and other products". Martin further emphasized the immense value of the partnership, by highlighting the decades of experience that renowned Aquilaria expert, Dr. Baharuddin Salleh provides to the company. Dr Baharuddin Salleh, a distinguished researcher and author, formerly served as a Professor of Plant Pathology & Mycology at the University of Sains Malaysia (USM) and boasts an impressive portfolio of over 100 published works. His expertise and contributions will be instrumental in the progress of Agroforestry Group's initiatives in Aquilaria research and development. ]]> https://agrospectrumasia.com/news/160/1006/international-soil-borne-pathogens-rd-center-launched-in-ankara-turkey.html https://agrospectrumasia.com/news/160/1006/international-soil-borne-pathogens-rd-center-launched-in-ankara-turkey.html Thu, 01 Jun 2023 07:30:00 +0530 New center will initiate programs on robust surveillance system for tracking pathogens, a genebank for germplasm, and screening facilities for SBP resistance Food security is threatened by soil-borne pathogens (SBP), especially as climate extremes (temperature, precipitation) become more common. A variety of specific adverse effects are caused by fungi, bacteria, viruses, and nematodes, including root rot, wilt, yellowing, and dwarfing. Crop yields can be reduced by 50-75% as a result of these pathogens. Turkish Agriculture and Forestry Minister Vahit Kirişci inaugurated the Center, the first of its kind in Central West Asia and North Africa (CWANA) dedicated to advancing research on SBPs and developing innovative solutions to control and prevent their spread. Among the new programs at the center are a robust surveillance system for tracking pathogens, a genebank for germplasm, and screening facilities for SBP resistance. The opening ceremony took place in early May 2023 at the Directorate of Plant Protection Central Institute working under the General Directorate of Agricultural Research and Policies (TAGEM), and it was attended by deputy ministers, TAGEM’s DG, and high-level officials of the Ministry of Agriculture and Forestry. In order to enhance crop health and productivity, Country Representative of the International Maize and Wheat Improvement Center (CIMMYT) and the Soil-Borne Pathogens Research & Development Center (ISBPRDC) are signing a joint R&D collaboration agreement that will facilitate knowledge exchange and technology transfer. Thirty-five scientists and technicians will work at the ISBPRDC and the institute will act as an umbrella for all SBP research in Turkey. Bahri Dağdaş International Agricultural Research Institute (BDIARI), the Transitional Zone Agricultural Research Institute (TZARI), and the Plant Protection Central Research Institute (PPCRI) with offices in Konya, Eskisehir, and Ankara, respectively, will support the ISBPRDC center and collaborate with the SBP program at CIMMYT to deliver high-yielding wheat germplasm that is resistant to SBP. In accordance with international sanitary standards, the ISBPRDC will be operated, said the General Directorate of Agricultural Research and Policies (TAGEM), part of the Turkish Ministry of Agriculture and Forestry. CGIAR and TAGEM mutually supported the SBP CIMMYT Turkey program by establishing and funding the ISBPRDC. ]]> https://agrospectrumasia.com/news/160/997/chinas-silk-producing-season-on-top.html https://agrospectrumasia.com/news/160/997/chinas-silk-producing-season-on-top.html Mon, 29 May 2023 16:20:30 +0530 China produces more than 150,000 metric tonnes of silk every year The end of May is known as the silkworm cocoon season in China. In China, spring is the best season to raise the silkworm. Jiangsu, Zhejiang, and Sichuan are silk-producing provinces in China. Silkworm farmers in these provinces are busy cultivating silk cocoons. China produces 70 per cent of silkworm cocoons and raw silk in the world. Each cocoon has only one thread and in a good cocoon, the length of the thread is around 1.5 kilometres. It takes 28 days for silkworms to transform into adult, pupae. China is the top silk exporter in the world. In 2022 China’s silk export reached $932.98 million, according to the United Nations COMTRADE database on international trade. China produces more than 150,000 metric tonnes of silk every year. After China India produces 30,000 metric tonnes of silk. China’s plant-reeled silk export reached 3590 tonnes in 2022 up by 202.46 per cent year on year, with an export value of $222 million up by 223. 35 per cent. Silk is a long continuous fibre made from the solidification of silk liquid secreted by the mature silkworm during cocooning. Depending on the food of the silkworm, it can be divided into mulberry silk, sericulture silk, cassava silk and camphor silk and so on. Mulberry silk as raw material, a number of cocoon silk will be held together and reeled into filament, also known as silk. Machine-reeled silk is called plant-reeled silk. At present, it is rare to see hand-reeled silk, and the silk produced in China and exported is basically plant-reeled silk. As the largest manufacturer of silk, China’s The National Genetic Resources Bank of the Silkworm in Chongqing was recently listed as one of 12 new genetic resource protection units. There are 217 protection units including 10 genetic resources in China. According to the China Daily, the Ministry of Agriculture and Rural Affairs approved the second group of units in January. The protection of China's silkworm genes found in silkworm eggs under the country's Animal Husbandry Law, according to the Institute of Sericulture and Systems Biology in Southwest University, the gene bank's home. The gene bank established in the 1930s, has maintained comprehensive silkworm data since 1940. Over the years, the gene bank became the world's biggest for domestic silkworms bank. The gene bank has more than 1,150 live genetic stocks of domestic silkworms, including local strains, improved varieties, natural mutants, chemical-induced and physically-induced artificial mutants, innovative germplasms that are constructed via transgenic and genome-editing techniques and special germplasms whose lineage traces to wild ancestors. The stock covers more than 90 per cent of the world's representative silkworm resources. Chinese cities such as Suzhou, Hangzhou, Nanjing and Shaoxing are known for the silk industries.   Silk has been a symbol of Chinese culture for thousands of years and spring is the best season to raise the silkworms that produce it. The province is known across the world for its high-quality material and local farmers continue to adapt to the times. Specially bred mulberry leaves contain 20 per cent protein, which silkworms then convert into silk protein after devouring them. China’s silk reeling industry has been industrialised since the 1950s, and it's now a local economic pillar. Modern agricultural techniques have helped take the industry to the next level. Shraddha Warde Shraddha.warde@mmactiv.com ]]> https://agrospectrumasia.com/news/160/986/new-crispr-technology-creates-enterprise-scale-gene-editing-tools-for-agri-biotechnology.html https://agrospectrumasia.com/news/160/986/new-crispr-technology-creates-enterprise-scale-gene-editing-tools-for-agri-biotechnology.html Thu, 25 May 2023 11:49:00 +0530 Pairwise’s Fulcrum™ Platform creates custom gene editing tools will help accelerate innovation in agricultural product portfolios, supply chains, and production systems. Pairwise, a health-focused food and agriculture company, launched its FulcrumTM Platform today. Using proprietary CRISPR technology along with custom gene editing tools, Pairwise will be able to make complex changes to plant genetics quickly and successfully, leading to innovative enterprise-scale applications. With this game-changing platform approach, Pairwise applies it to both its own ConsciousTM Foods brand and to the products of its business partners. Pairwise is among the first companies in the world to commercialize food developed using CRISPR gene editing technology. “With the Fulcrum platform, we can make small genetic changes that deliver big product impacts. We call this approach the Seismic Tweak,” said Ian Miller, Chief Development Officer at Pairwise.  In May 2023, Pairwise launched its first branded product, Conscious™ Greens, in the food service channel through a partnership with Performance Food Group. Additionally, via a five-year partnership with Bayer, Pairwise used the Fulcrum platform to identify nearly 200 unique gene sequences that can be changed to improve productivity and disease resistance across a variety of row crops, including a unique target in corn that has increased kernel rows by up to 20%.  Pairwise unique CRISPR intellectual property (IP), enables the company to edit genes more effectively than other companies in the market, helping it evolve to become an industry-leading tool. Novel Pairwise-developed technologies that underpin the Fulcrum platform include REDRAW™, or RNA-encoded DNA replacement of alleles with CRISPR, a precise templated editing toolbox that can make any type of small edit at CRISPR-targeted sites. Another tool is SHARC™, a proprietary enzyme that works well for cutting, base editing, and REDRAW editing. This is a combination that’s created a foundational, game-changing genome editing toolkit. SHARC, REDRAW, and Pairwise’s other proprietary base-editing tools allow for precise changes at virtually any location in a genome, an approach that holds huge potential not only in agriculture but in other fields as well, such as medicine. Anchored by the Fulcrum Platform and the company’s deep technical and agronomic expertise in over 60 crops, Pairwise is leading the way in genetics-based innovation in plants and plant-based systems. ]]> https://agrospectrumasia.com/news/160/976/australias-agt-introduces-two-new-lupin-varieties-for-the-2024-season.html https://agrospectrumasia.com/news/160/976/australias-agt-introduces-two-new-lupin-varieties-for-the-2024-season.html Wed, 24 May 2023 10:10:17 +0530 The two newly developed lupin varieties will demonstrate a leap forward for lupin growers AGT has accelerated yield improvement by applying cutting edge DNA-based genomic selection at a level beyond any legume breeding in Australia in order to accelerate yield improvement. Lupin breeding at AGT keeps pace with wheat and barley breeding using advanced statistics and robotics. The two newly developed lupin varieties will demonstrate a leap forward for lupin growers - offering wide adaptation, high and stable yields, low risk of pod shatter and seed splitting, metribuzin tolerance, and improved stem Phomopsis resistance.” The two new varieties each bring an exciting balance of traits to lupin growers. The two new Lupin varieties will be named and released in spring 2023. Lupins play a significant role in supplying cropping systems with nitrogen and are well adapted to the sandy soils found in the Western Australian wheatbelt. WA accounts for more than 80% of lupin exports and is the world's leading producer and exporter of lupins, so these variety releases are incredibly important for the farmers of Western Australia. “We have been working hard on improving the lupin germplasm that we received from the WA Department of Primary Industries and Regional Development in 2016.” AGT CEO and Head of Breeding, Haydn Kuchel said. “Plant breeding can be a slow process, but since we took over the Lupin breeding mantle. While using advanced genomics and breeding techniques, this year we took it a step further, fast-tracking the seed production of two distinct Lupin varieties over summer in southern WA. We plan on growing four generations of Lupins in just two years to make sure that WA growers have the best lupin varieties in their paddocks as soon as possible. “AGT has always been committed to developing varieties that deliver greater returns to growers. These two new varieties, tested as AGTP0013 and AGTP0054, are exciting alternatives to what is currently available to lupin growers.” In trials, AGTP0013 has shown itself best suited to northern and central WA and has slightly quicker maturity than PBA Jurien while AGTP0054 displays an advantage in southern growing regions of WA, being slightly slower maturing than PBA Jurien. Both have market leading yield potential and improved CMV resistance and stem Phomopsis resistance over PBA Jurien and Coyote respectively. ]]> https://agrospectrumasia.com/news/160/930/china-approves-worlds-first-gene-editing-breeding-technology.html https://agrospectrumasia.com/news/160/930/china-approves-worlds-first-gene-editing-breeding-technology.html Sun, 14 May 2023 10:30:18 +0530 Shunfeng Biotech obtained the country's first gene editing safety certificate for genetically engineered soybeans with high-oleic acid The Ministry of Agriculture and Rural Affairs in China has approved the country's first plant gene editing safety certificate. Shunfeng Bio, a leading domestic gene editing company has obtained the certification during the release of "2023 Agricultural Gene Editing Biosafety Certificate Approval List". With this China reaffirms its commitment to strengthening biological breeding and safeguarding seed safety. China has granted approval to produce genetically engineered soybeans with high-oleic acid. This is the country's first global standard biotechnology project fully supported by the Jinan Science and Technology Bureau, Jinan Finance Bureau, and Jinan High-tech Zone.  Foods processed with high oleic acid oil can effectively reduce the content of trans fatty acids, thereby lowering cholesterol, lowering blood lipids and preventing cardiovascular diseases. Following the certification approval for gene-editing in plant breeding, Shunfeng Biotechnology has increased the oleic acid content of ordinary soybeans by 4 times, up to more than 80%. This soybean product is labeled "nutrition and health", "high cost performance", and "high added value". The approval of the high oleic soybean safety certificate has greatly accelerated the industrialization process of Shunfeng Biology. In addition to soybeans, Shunfeng Biology has systematically deployed four major product R&D pipelines around gene editing technology, high-yield rice, wheat, corn, herbicide-resistant rice and soybeans, high straight/amylopectin corn suitable for industrial processing, Rice, high GABA tomato, high vitamin C lettuce and other nutritious and healthy new varieties are ready for commercialization. In 2022, the Ministry of Agriculture and Rural Affairs issued the "Guidelines for the Safety Evaluation of Gene Edited Plants for Agricultural Use (Trial)", promulgating relevant policies and management measures for agricultural gene editing technology for the first time, and based on the fact that gene editing products do not contain foreign genes Scientific attributes, clearly distinguish gene editing products from the management of genetically modified crops. In April 2023, the Ministry of Agriculture and Rural Affairs issued the "Regulations for the Review of Gene-Edited Plants for Agricultural Use (Trial)", which further clarified the classification standards of gene-edited plants and simplified the review rules, further enhancing the operability of the Guidelines. China has built strong platform for gene technology with high-tech enterprises, national intellectual property advantages enterprises, new research and development institutions in Shandong Province, Jinan City Gene Editing Key Laboratory and many other honors; the first batch of gene editing products entered the commercialization stage, and reached a consensus on industrialization promotion with a number of partners. The 20th National Congress of the Communist Party of China proposed to speed up the construction of a strong agricultural country, in which improved varieties are the chassis and a necessary means to vigorously promote biological breeding. The issuance of the country's first safety certification marks that my country's gene editing has officially entered the fast lane of industrialization. ]]> https://agrospectrumasia.com/news/160/916/cat-invests-in-future-of-genetics-and-genome-editing.html https://agrospectrumasia.com/news/160/916/cat-invests-in-future-of-genetics-and-genome-editing.html Wed, 10 May 2023 12:14:51 +0530 The facility includes a state-of-the-art genome editing and germ cell transfer laboratory for commercial-scale research applications, as well as a wet lab for data collection The Centre for Aquaculture Technologies (CAT), which offers aquaculture genetic solutions and health and nutrition research services, has expanded its facility with a new Finfish Genetics Innovation Centre in San Deigo, USA. The Centre for Aquaculture Technologies (CAT) has announced an expansion of its San Diego facility by opening the Finfish Genetics Innovation Centre. The new research space is fully dedicated to the delivery of foundational advances in genome editing technologies for commercial aquaculture applications. This investment represents a significant step by CAT in its mission to help the aquaculture industry increase efficiency through the development and application of genomic tools for next-generation breeding. “The San Diego facility expansion aligns with our plans to accelerate strategic growth and expand CAT’s global footprint,” said Dr John Buchanan, President and CEO. “The Finfish Genetics Innovation Centre will support the continued commercialisation of our patented genome editing technologies and ability to drive genetic innovation in aquaculture.” The facility includes a state-of-the-art genome editing and germ cell transfer laboratory for commercial-scale research applications, as well as a wet lab for data collection. Also included are new, world-class RAS systems, custom-built to support research and animal welfare, and to help streamline maintenance and husbandry activities. Bringing these three workspaces together under one roof will enhance efficiency in conducting research and delivering breakthroughs. Of the new centre, Matt Stone, Facility Manager, said, “Our Aquatic Facilities team is looking forward to utilising the new Finfish Genetics Innovation Centre and is excited to participate in the groundbreaking research in aquaculture genetics and genomics.” ]]> https://agrospectrumasia.com/news/160/896/singapore-develop-plant-based-cell-culture-scaffold-meat-which-can-be-3d-printed.html https://agrospectrumasia.com/news/160/896/singapore-develop-plant-based-cell-culture-scaffold-meat-which-can-be-3d-printed.html Fri, 05 May 2023 11:03:12 +0530 Besides speeding up the process for cheaper, more sustainable lab-based meat cultivation, these edible scaffolds can be 3D-printed using widely available plant prolamins A research team from the National University of Singapore (NUS) has successfully used common plant proteins to 3D-print an edible cell culture scaffold, allowing more affordable and sustainable lab-grown meat to be served on the table. The research team has successfully cultured meat that is similar in texture and overall appearance to real animal meat. Lab-grown meat has become an increasingly popular source of dietary protein, as consumers become more conscious of the environmental and ethical ramifications of their protein source. Cultured meat or cell-based meat is produced by taking skeletal muscle cells from animals and growing them on three-dimensional constructs called scaffolds, which provide structural support as the cells multiply and develop into tissues. “Scaffolds made from plant proteins are edible and have diverse and variable peptide sequences that can facilitate cell attachment, induce differentiation, and speed up the growth of meat. In contrast, synthetic scaffolds such as plastic beads used for cultured meat have no functional group which makes it difficult for animal cells to attach and proliferate. In addition, synthetic scaffolds are not edible and extra steps are required to separate the scaffolds from the meat culture,” elaborated Prof Huang. However, cell culture scaffolds are typically made from synthetic or animal-based materials, which are either too expensive or inedible. In search of an alternative, the team led by Professor Huang Dejian, Deputy Head of the NUS Department of Food Science and Technology, turned to plant proteins. These proteins are biodegradable and biocompatible with animal cells. Crucially, plant proteins also satisfy common food consumption requirements, making the resulting scaffold suitable for culturing meat. The researchers used mixtures of prolamins derived from corn, barley and rye flour, also known as zeins, hordeins and secalins, respectively. These mixtures then acted as the ink for electrohydrodynamic printing, a high-precision 3D printing technology commonly employed in biomedical applications. “By using readily available cereal prolamins as biomaterials for high-precision 3D printing technology, we open up a new method for manufacturing edible and structured scaffolds to produce cultured muscle meat slices with fibrous qualities,” said Prof Huang. For scaffolds to be of any use in cultivating meat, they need to be biocompatible with muscle cells from agricultural animals, meaning that they need to be able to accommodate these cells and support their growth and development. Researchers found that the cells divided extensively on the scaffolds, when seeded the prolamin constructs with stem cells from pig skeletal muscle, reaching a maximum count 11 days after they were inoculated. The stem cells grew comparably well in both zein/hordein and zein/secalin scaffolds. Of significance, when compared against a standard polycaprolactone scaffold, a common tool in tissue engineering, pig cells seeded onto the prolamin constructs proliferated much faster, demonstrating that the plant protein-based scaffold was more feasible for cultured meat production than standard synthetic polymers. These results further verify the potential of the proposed prolamin-based scaffolds in cultivated meat production. Prof Huang and his team are actively working on refining the plant protein-based technology ]]> https://agrospectrumasia.com/news/160/850/researchers-produce-purple-tomatoes-with-healthy-antioxidants.html https://agrospectrumasia.com/news/160/850/researchers-produce-purple-tomatoes-with-healthy-antioxidants.html Thu, 27 Apr 2023 10:54:38 +0530 OSU breeding program followed non-GMO traditional cross pollination and cultivated methods over a decade to produce antioxidant rich breed variety Oregon State University, situated in Corvallis, United States has undertaken a crucial research project on vegetable breeding which has grown the world's first Indigo Rose (purple) tomato containing the same healthy compound found in blueberries. None of the tomatoes was produced using genetically modified genes. Prof Myers, OSU College of Agricultural Sciences, and his team took 10 years to develop. A novel breed has exclusive antioxidants called anthocyanins giving it a unique color. In addition, the team has generated four other purple tomatoes to add to the mix: Indigo Cherry Drops, a cherry tomato with better flavor and yield than Indigo Rose; Indigo Pear Drops, a sweet, pear-shaped fruit; and Indigo Kiwi, with improved growth habit, flavor and resistance to leaf curl. Now, there are 50 progenies from Indigo Rose, five from OSU, and the rest from private breeders using Myers’s germplasm, which are the cells that transfer characteristics from generation to generation. ]]> https://agrospectrumasia.com/news/160/796/ginkgos-cell-programming-capabilities-to-support-syngentas-ongoing-seeds-rd-pipeline-efforts.html https://agrospectrumasia.com/news/160/796/ginkgos-cell-programming-capabilities-to-support-syngentas-ongoing-seeds-rd-pipeline-efforts.html Tue, 18 Apr 2023 11:52:26 +0530 Ginkgo’s cell programming capabilities to support Syngenta’s ongoing seeds R&D pipeline efforts Syngenta Seeds (Syngenta), global agri-tech company and Ginkgo Bioworks have partnered to screen a targeted genetic library for novel trait discovery. The results of this research are intended to inform future seed trait development so that farmers can grow healthier and more resilient crops. Ginkgo Bioworks is building the leading platform for cell programming and biosecurity, Syngenta will leverage Ginkgo’s extensive protein engineering capabilities and proprietary ultra high-throughput screening technologies to complement and accelerate Syngenta’s efforts to design and develop innovative plant traits. Ginkgo will leverage proprietary ultra high-throughput single-cell encapsulation and screening platform to support Syngenta’s development efforts to bring the next generation of innovative products to farmers. The partnership aims to tackle pressing challenges at global agriculture ecosystem. Innovative research partnerships in agriculture understanding the value of cross-pollinating expertise and capabilities across diverse industries is crucial. ]]> https://agrospectrumasia.com/news/160/760/chinas-national-demo-plot-fosters-gmo-corn-variety-from-origin-agritech.html https://agrospectrumasia.com/news/160/760/chinas-national-demo-plot-fosters-gmo-corn-variety-from-origin-agritech.html Wed, 12 Apr 2023 09:50:43 +0530 The Beijing-based Origin Agritech Company secures a plot for its triple-stacked GMO corn trait with an anticipation for commercial launch this summer Chinese agricultural technology company, Origin Agritech Limited, (HQ: Zhong-Guan-Cun (ZGC) Life Science Park, Beijing) has achieved recognition by securing significant ground in the 'National Demo plot', the plots cultivated by leading farmers in China's agriculture sector. Origin Agritech's genetically modified (GMO) corn is the only triple-stacked trait corn selected for the national demo plot and is currently grown in the plot. The hybrid variant anticipates commercial launch later this year. In crop seed biotechnologies, Origin Agritech's phytase corn was the first transgenic corn to receive the Bio-Safety Certificate from China's Ministry of Agriculture. Over the years, Origin has established a robust biotechnology seed pipeline including products with glyphosate tolerance and pest resistance (Bt) traits. The hybrid has the approved triple stack trait BFL4-2, which is comprised of two different insect resistance genes, making it resistant to all the major corn pests, as well as an herbicide resistance gene. BFL4-2 is considered by many in the industry to be the 'crown jewel' of current seed traits in China as it is the only approved triple stack trait. Using its proprietary germplasm and transgenic technology, Origin collaborated on the development program for BFL4-2 and is the only company to have the stacked traits integrated into hybrid corn, giving it a several-year head start over potential competition. The approval procedure is in progress for four different varieties containing BFL4-2, including the Company's NEC corn. With dramatically increased yields, this highly sought after variety offers greater benefits. Commercial launch of these varieties is expected in summer 2023. "Having the triple stacked trait integrated into four of our hybrid corn, along with our other traits in the approval process including our drought resistance gene, really puts us in pole position in the race to commercialize GMO corn in China. MOA has recognized the importance of our revolutionary new GMO corn varieties by including them in the demo plot. We are best positioned to capitalize on this multi-billion-dollar market opportunity" said Origin Agritech's Chairman Gangchen Han. ]]> https://agrospectrumasia.com/news/160/752/new-csiro-project-to-crack-the-codes-of-australias-most-invasive-species.html https://agrospectrumasia.com/news/160/752/new-csiro-project-to-crack-the-codes-of-australias-most-invasive-species.html Tue, 11 Apr 2023 11:17:24 +0530 CSIRO’s Australian Pest Genome Partnership (APGP) is producing genetic data for Australia’s top pests and weeds to inform research and decisions on how to manage them. CSIRO, Australia’s national science agency, has embarked on an ambitious new project to unravel the genetic blueprints of Australia’s top pest and invasive species to better enable their management or eradication. The Australian Pest Genome Partnership (APGP) will generate the genomic data of hundreds of pests and weeds and make it freely available, along with digital solutions to help analyse the data. The data will assist researchers working on pest and weed species and underpin next generation species-specific solutions. Invasive species have cost Australia $390 billion over the past six decades, with weeds costing the agriculture sector at least $5 billion a year. This presents a significant burden to Australia’s agriculture and livestock industries, as well as the significant and ongoing environmental impacts created by these invasive species. APGP has now prepared its first 28 genomic datasets, and this year, with its collaborators, will make public genomic data assets for some of Australia’s top pest and invasive species such as mosquitoes, khapra beetle, cane toad, fall armyworm, fox, feral pig and cat as well as weeds such as wild radish, rye and rat’s tail grasses. CSIRO principal research scientist Tom Walsh said data is easy but analysis is hard. APGP intends to make genomic data more easily accessible and usable to support industry, government and the scientific community in managing pests. “This project has the potential to drive new science and digital innovations to safeguard Australia’s environment and biosecurity from existing and growing threats posed by invasive and pest species,” Dr Walsh said. CSIRO senior research consultant Rahul Rane said the fit-for-purpose genomics database being delivered through APGP will be a game-changer in invasive species control and management. “Genomes and genetic diversity data can tell us all manner of things including where a particular pest species has travelled from, what environments it may thrive in, and whether it has developed resistance to chemicals and pesticides,” Dr Rane said.  Dr Rane also added that the more we know about the genetic characteristics of a pest, the better our ability to make informed decisions to effectively control or eliminate them safely. Ultimately research based on these new datasets will benefit all Australians by reducing public health risks and the impact of these pest species on our environment and agricultural production. Hundreds more pests are being sequenced this year, including jellyfish, invasive ants and beetles, termites, African boxthorn, crown of thorns starfish, ticks and head lice. APGP is looking to partner with companies, government departments and other research organisations to continue sequencing and collating the genome of pests impacting Australia’s biosecurity. The project received investment from the Australian Research Data Commons (ARDC) and has received co-investment from Australian BioCommons and Australian National University. Genomic datasets were developed in collaboration with Macquarie University, University of Melbourne, University of New South Wales, University of Queensland, University of Western Australia, Queensland Department of Agriculture and Fisheries and South Australian Research and Development Institute. The ARDC and Australian BioCommons (Bioplatforms Australia) are funded by the National Collaborative Research Infrastructure Strategy (NCRIS). ]]> https://agrospectrumasia.com/news/160/731/israeli-scientists-develop-drought-resistant-tomato-variety.html https://agrospectrumasia.com/news/160/731/israeli-scientists-develop-drought-resistant-tomato-variety.html Thu, 06 Apr 2023 11:36:39 +0530  Scientists identified interactions between two areas of the tomato's genome that lead to increased yield and resistance to dry conditions. Israeli researchers Shai Torgeman and Professor Dani Zamir from the Hebrew University of Jerusalem have developed a new tomato variety that is more resistant to drought conditions and could help with the destructive impact of climate change. The scientists crossbred two species of tomatoes, a wild variety from the deserts of western Peru, with a common commercial cultivar that is widely available. They identified interactions between two areas of the tomato's genome that lead to increased yield and resistance to dry conditions. The study found that these specific areas in the plant's genome led to a 20 per cent-50 per cent increase in the overall yield in both regular and dry conditions. The scientists also observed that plant size improved. According to the researchers, their findings show that using wild species is an effective way to enhance agricultural output. They could also prove to be widely applicable to other plants in the future. “The new tomato breed being developed in Israel could help soften the blow. It is expected to hit supermarket shelves in the near future and likely will be used as a processing tomato in the production of ketchups and sauces”, Torgeman said.  Torgeman also added that we’re now in the stage of cultivating the first crossbred species for commercial purposes and I believe that this will be available on the market in the next 2-3 years. ]]> https://agrospectrumasia.com/news/160/707/philippines-approves-bt-eggplant-for-commercial-cultivation.html https://agrospectrumasia.com/news/160/707/philippines-approves-bt-eggplant-for-commercial-cultivation.html Mon, 03 Apr 2023 08:20:00 +0530 Philippines is the second country to allow commercial farming of genetically modified eggplants after Bangladesh. The Philippines has become the second country in the world to allow farmers allow commercial cultivation of BT eggplant varieties that are genetically modified to resist the devastating insect known as eggplant fruit and shoot borer (EFSB). Bangladesh had approved BT eggplant earlier in 2013 as the first country to do so. Bt eggplant, or talong, was the first biotechnology vegetable crop developed in the Philippines after 15 years of testing and safety trials. In the early 2000s, public sector scientists found that introducing a gene from the soil bacterium Bacillus thuringiensis (Bt) into talong successfully repelled the EFSB, offering protection from this devastating insect pest without chemical insecticides. Researchers at UPLB obtained access to the gene and used conventional breeding techniques to develop seven new Bt eggplant varieties and hybrids adapted to Philippine conditions. The natural protein produced by the Bt gene only affects the targeted insect. Bt crops are widely grown around the world, and extensive research has shown they are safe for human consumption and the environment. Farmers have been growing Bt corn in the Philippines since 2003. Bt is also used globally for insect control in organic agriculture. Studies conducted in the Philippines have repeatedly confirmed BT eggplant to be safe and effective at repelling EFSB. Research has shown Bt eggplant cultivation will incur lower production costs for farmers and ultimately provide three-fold higher net farm incomes due to the combined effect of reduced insecticide use and the increased marketable fruit yields. In 2021 the Philippines government approved Bt eggplant for direct use as food, feed and for processing. This final approval provides the biosafety permit for commercial cultivation. Earlier in Oct 2022, the Department of Agriculture – Bureau of Plant Industry granted a biosafety permit to the University of the Philippines Los Baños (UPLB) for the commercial cultivation of Bt eggplant. Eggplant is a popular and profitable crop grown by hundreds of thousands of farmers in the Philippines. Maricelis Acevedo, research professor of global development at Cornell and director for the USAID-supported Feed the Future Insect-Resistant Eggplant Partnership (IREP) said “This decision is more than a decade in the making, and it paves the way for farmers to increase their income and crop productivity while reducing the use of highly toxic insecticides. This is what biotechnology and innovation can do for smallholder farmers and consumers.” Currently, South Asia farmers growing traditional eggplant varieties must spray insecticide multiple times per week to combat the EFSB. Farmers spray insecticides up to 80 to 100 times per season, often without the aid of protective equipment, posing serious health threats to farmers, their families and the environment. Even with regular applications of insecticide, the fruit and shoot borer can still cause up to 80% crop loss, making insecticides an expensive and inefficient option for farmers. In addition, exposure to pesticides causes health concerns for farmers and contributes to environmental problems. ]]> https://agrospectrumasia.com/news/160/648/basf-advances-innovation-pipeline-to-accelerate-agricultures-transformation.html https://agrospectrumasia.com/news/160/648/basf-advances-innovation-pipeline-to-accelerate-agricultures-transformation.html Wed, 22 Mar 2023 05:00:00 +0530 Expanding options for weed management, leveraging chemistry, biotech and data insights with integrated solutions BASF has unraveled the latest advancements in its agricultural innovation pipeline of crop protection, seeds and traits, and digital solutions. Their focus is to provide much-needed solutions for farmers to overcome local and crop system specific pest pressures, climate challenges, changing regulatory requirements and rising consumer expectations. Executing on its strategy in agriculture announced in 2019, the company is directing its innovations to improve outcomes for major regional crops, such as soy in the Americas, fruits and vegetables in Europe and rice in Asia Pacific. The value of the innovation pipeline remains strong, with an estimated peak sales potential of more than €7.5 billion fueled by products launched within the next ten years. “Our goal is to become an ever more integrated provider of agricultural solutions and to expand the options we can offer to farmers. This is why we continue to invest substantially across our broad pipeline of agricultural technologies, with €944 million spent on Research & Development in 2022,” said Dr. Livio Tedeschi, President of BASF Agricultural Solutions. “Farmers can continue to rely on us to innovate and deliver new active ingredients, innovative formulations, and traits to get more value from their production, both economically and environmentally.” “Our pipeline demonstrates that we are not only leveraging our deep expertise in chemistry and environmental sciences, but also matching it with leading biotechnology and digitalization approaches for next generation solutions,” added Dr. Peter Eckes, President R&D and Regulatory of BASF Agricultural Solutions. “BASF’s industry-leading weed-control pipeline is a premier example of how our multidisciplinary approach yields solutions that balance the needs of farmers, society and the environment.” Broad portfolio of solutions to improve outcomes in rice in Asia Pacific Farmers growing rice – the major crop for the main continent of Asia – face growing pressure from resistant weeds, diseases, and pest insects. BASF actively supports farmers to overcome these challenges through a broad portfolio of technologies. Multiple new chemistries and formulations are expected before mid-decade aimed at improving outcomes in rice: A new insecticide mode of action for rice hopper control is under development by BASF in collaboration with industry partners. BASF has accelerated the development of the insecticide to reach farmers in Asia Pacific by mid-decade. BASF’s new Luximo® herbicide belongs to a chemistry class that was the first new mode of action classification update introduced in the last four decades. Luximo will be launched in Indonesia in 2024, with other countries in the Asian market to follow by mid-decade. Kixor® CS is a new herbicide formulation of Kixor® Active that can be applied beyond pre-emergence to early-post, providing growers the flexibility to apply further into the season. The innovative encapsulation of the herbicide provides a physical barrier that increases crop safety while enabling long-lasting residual control of broadleaf weeds. Revysol®-based products will be launched within the next two years to control major diseases in rice such as sheath blight, and dirty panicles. These new formulations will be available to rice farmers in the region under the product names Cevya®, Mibelya®, and Revyrize®. Seltima® Plus is a disease management solution for rice with built in resistance management that will be introduced in the region in the next years. The combination of two fungicides provides yield and seed quality increases over market standards. In 2022, registration was granted in Indonesia with India, China and other countries to follow. The Provisia® rice system and Clearfield® production system for direct seeded rice enable growers to continuously make better use of the limited arable land and are an alternative to wet paddy cultivation. These yield-preserving technologies will debut in India, Malaysia, Thailand, and the Philippines in the second half of the decade. Additionally, Provisia will enter the Chinese rice market by 2025. As an introductory step, BASF announced a long-term partnership with Seedworks Philippines to introduce BASF’s non-GM trait for Provisia herbicide-tolerance into the Philippines’ hybrid rice market. This collaboration is one of ten different seed partnerships across five countries in Asia that will launch Clearfield and Provisia herbicide tolerant traits in rice. The decision-making quality of xarvio® FIELD MANAGER is continuously improving to optimize sustainable rice production in Japan. To support more efficient use of pesticides, BASF is updating the platform with new insect pest models expected to be available by 2025. Disease models will also be enhanced to support more precise fungicide timing, dosing, and product selection recommendations. Owing to the accurate, and continuously improving model-based insights, xarvio has evolved into the de facto standard tool for crop protection. ]]> https://agrospectrumasia.com/news/160/628/corteva-agriscience-and-bunge-collaborate-to-develop-amino-acid-enhanced-soybeans.html https://agrospectrumasia.com/news/160/628/corteva-agriscience-and-bunge-collaborate-to-develop-amino-acid-enhanced-soybeans.html Fri, 17 Mar 2023 09:34:18 +0530 Ongoing collaboration to improve the nutritional profile of soybean meal and deliver value to farmers and feed and animal protein producers showing promising results Corteva Inc. (NYSE: CTVA), and Bunge (NYSE: BG) announced today significant advancements in the development of more nutritious soybean meal for the animal feed industry, specifically suited for poultry, swine and aqua feed. The companies have a multi-year collaboration to develop and commercialize soybean varieties that can create a potential new value stream opportunity for soybean farmers while giving feed compounders a new option to reduce their use of synthetic additives, lower costs, and shrink their carbon footprint. Through this collaboration, Corteva is leveraging its expertise in germplasm, gene editing, and traits discovery to develop soybean varieties with greater protein content, optimized amino acid profiles, and lower levels of anti-nutritional factors. Early field trial research has confirmed Corteva’s approach to boosting protein levels and significantly increasing the proportion of the key amino acids methionine and lysine in the soybean while maintaining high field and oil yields. “The future of food production hinges on developing new tools and technology to help farmers sustainably meet their production goals,” said Dr. Tom Greene, VP, Biotechnology, Corteva Agriscience. “Our collaboration with Bunge aligns with our commitment to sustainable innovation while supporting improved animal performance and greater value opportunities for livestock and row crop farmers. Our next step is to bring the higher-protein, enhanced-amino acid profile into a commercial soybean variety that offers the best value for soybean farmers.” Bunge will be the exclusive processor of the oilseed as well as exclusive merchandiser of the high-value meal and oil, leveraging its deep farmer relationships and existing facilities to source the oilseed and deliver incremental value to farmers, feed compounders and animal protein producers. ]]> https://agrospectrumasia.com/news/160/612/singapore-develop-the-worlds-first-microneedle-based-drug-delivery-technique-for-plants.html https://agrospectrumasia.com/news/160/612/singapore-develop-the-worlds-first-microneedle-based-drug-delivery-technique-for-plants.html Tue, 14 Mar 2023 10:26:10 +0530 Polymeric silk microneedles are used to deliver agrochemicals to a wide variety of plants to implement in plant science research and precision agriculture Singapore researches have developed the first-ever polymeric Silk microneedles by designing a system deliver agrochemicals to a wide variety of plants as an efficient drug delivery system which can be implemented in plant science research and precision agriculture. Researchers from the Disruptive & Sustainable Technologies for Agricultural Precision (DiSTAP) Interdisciplinary Research Group (IRG) of Singapore-MIT Alliance for Research and Technology (SMART), MIT’s research enterprise in Singapore, and their collaborators from Temasek Life Sciences Laboratory (TLL) and Massachusetts Institute of Technology (MIT), have developed microneedle-based drug delivery technique for plants which can precisely deliver controlled amounts of agrochemicals to specific plant tissues for research purposes. When applied in the field, it could be used in precision agriculture to improve crop quality and disease management.  Increasing environmental conditions caused by climate change, an ever-growing human population, scarcity of arable land, and limited resources are pressuring the agriculture industry to adopt more sustainable and precise practices that foster more efficient use of resources  (e.g. water, fertilisers, and pesticides) and mitigation of environmental impacts. Developing delivery systems that efficiently deploy agrochemicals such as micronutrients, pesticides, and antibiotics in crops will help ensure high productivity and high produce quality while minimising the waste of resources is crucial.  However, current and standard practices for agrochemical application in plants, such as foliar spray, are inefficient due to off-target application, quick run-off in the rain, and actives’ rapid degradation. These practices also cause significant detrimental environmental side effects, such as water and soil contamination, biodiversity loss and degraded ecosystems; and public health concerns, such as respiratory problems, chemical exposure and food contamination. ]]> https://agrospectrumasia.com/news/160/610/corteva-agriscience-unveils-plant-breeding-innovation-to-combat-corn-disease.html https://agrospectrumasia.com/news/160/610/corteva-agriscience-unveils-plant-breeding-innovation-to-combat-corn-disease.html Tue, 14 Mar 2023 09:48:43 +0530 Novel New Technique Uses CRISPR to Increase Multi-Disease Resistance Using Native Genes Corteva Agriscience has invented a breakthrough gene editing technology that will bring added protection to elite corn hybrids is advancing through the company’s R&D pipeline. The early-stage concept uses proprietary technology to package multiple disease-resistant native traits into a single location in the gene to better address the most devastating North American corn diseases facing farmers. In 2021, Northern leaf blight, Southern rust, gray leaf spot and anthracnose stalk rot combined to cost North America corn growers more than 318 million bushels in production. By using gene editing to combine and reposition disease resistant traits that already exist within the corn genome, Corteva is able to bolster disease tolerance and minimize production stress. Additionally, the technology could result in healthier plants and increase yield potential even further. “This transformational technology represents the next generation of plant breeding innovation. The gene mapping capabilities have allowed us to identify and optimally position the best native resistant genes in our already high-performing hybrids, so that we can deliver a premium product to farmers” said Sam Eathington, Chief Technology and Chief Digital Officer, Corteva Agriscience. As plant disease continues to be a growing concern for farmers, the multi-disease resistance concept is intended to simplify disease management and improve sustainability by reducing the need for additional crop protection product applications. This advancement will also meet Corteva’s sustainable innovation criteria for new products, which are based on the United Nations Sustainable Development Goals. The company anticipates this concept to advance to commercialization by the end of the decade. ]]> https://agrospectrumasia.com/news/160/604/genomic-breeding-strategies-to-cultivate-high-yielding-varieties-for-global-farmers.html https://agrospectrumasia.com/news/160/604/genomic-breeding-strategies-to-cultivate-high-yielding-varieties-for-global-farmers.html Mon, 13 Mar 2023 05:36:00 +0530 Texas Crop Science (TCS) and GDM have established a strategic collaboration to combine TCS High-Yielding Technology and GDM Proprietary Elite Soybean Germplasm to produce high yielding crop varieties  Texas Crop Science (TCS), a developer of cutting-edge and sustainable crop yield traits, and GDM, a leading company in plant genetics with U.S. headquarters in Champaign, Illinois, has entered a strategic collaboration to develop higher-yielding soybean varieties for global farmers. By incorporating TCS high-yielding technology into GDM’s world-leading soybean genetics using gene-editing and advanced plant breeding techniques, the collaboration aims to develop new soybean varieties that deliver higher yield under a wide range of growing conditions, varying from ideal to stress-impacted.  Soybeans are one of the main sources of plant protein for both human and animal nutrition.  In addition to the ongoing need for higher yields, soybean growers also face increasing challenges associated with the impacts of climate change. Forty percent of worldwide soybean production is made using GDM genetics, stemming from innovative technologies that combine data science, biotechnology, and agricultural management for the continual genetic improvement of soybean crops. High-yielding technology from TCS has been under development for more than a decade and proven to increase soybean yields by up to 34 percent through more than 70 intensive field trials carried out over seven years and nine growing seasons at locations in North and South America. Simon Hiebert, CEO of TCS said  “The novel yield trait technology and plant genetic innovation can create a stream of soybean products that will benefit farmers with increased and climate-stable yields, while also benefitting consumers through increased global food security and reduced environmental impact”. ]]> https://agrospectrumasia.com/news/160/524/bayer-and-kimitec-collaborate-to-create-the-next-gene-biologicals-for-agro-industry.html https://agrospectrumasia.com/news/160/524/bayer-and-kimitec-collaborate-to-create-the-next-gene-biologicals-for-agro-industry.html Mon, 13 Feb 2023 15:09:34 +0530 Strategic partnership to accelerate the development and commercialization of biological crop protection solutions and biostimulants Bayer and Kimitec inks a global strategic partnership to discover, develop and commercialize next-generation biologicals. Plant protection and biostimulant products will be formulated and manufactured using novel biomolecules derived from natural sources. Kimitec will leverage unique biological discovery capabilities with Bayer’s global field-testing resources, market expertise and comprehensive crop protection portfolio.  To accelerate the discovery of natural molecules, Kimitec will implement LINNA®, a MAAVi Innovation Center AI platform. The integrated crop management solutions are expected to address pests, diseases and weeds, as well as to promote plant growth. Kimitec's MAAVi Innovation Center is Europe's largest biotechnological innovation hub, with expertise in developing natural molecules and compounds for farmers and growers. Thus, Kimitec now acts as a key partner for Bayer's pipeline of biologicals. The biologicals market is expected to grow to nearly €25 billion by 2028, as consumers’ demand for low- and no-residue food products, and retailer food sourcing standards drive growers to look for new innovations in crop protection.  ]]> https://agrospectrumasia.com/news/160/753/chinese-researchers-use-gene-editing-to-remove-small-bones-from-carp.html https://agrospectrumasia.com/news/160/753/chinese-researchers-use-gene-editing-to-remove-small-bones-from-carp.html Sat, 11 Feb 2023 11:17:00 +0530 Scientists from the China Institute of Fisheries Science and the Heilongjiang Fisheries Research Institute have breakthrough in breeding theory and technique after creating the world's first carp fish There is no intermuscular bone (scapula). The fish was created by gene editing and, according to the institute and a report from China Daily, settles a 50-year-old debate over whether intermuscular bones can be regenerated. The researchers focused on the carp, a bony freshwater fish farmed throughout Eastern Europe and Asia. Although this species is a popular aquaculture product, the bones between its small muscles make it difficult to eat and process on a large scale. Leveraging gene editing to remove bone between muscles could make fish more competitive and offer more commercial opportunities, according to an analysis in  China Daily . A team at the Heilongjiang Fisheries Research Institute embarked on the project in 2009 and identified a key gene that regulates the development of the backbone between the muscles of the carp - bmp6. The biologists were able to successfully knock out this gene without seeing a negative impact on fish reproduction and growth levels. "In 2020, we have successfully raised the first generation of carp without intercalated carp with a success rate of 12.96%. The second generation in 2021 has a success rate of 19%." Kuang Youyi, a researcher in the group said. "In early 2022, we stocked about 20,000 third-generation fish at our test facility in Harbin, the capital of Heilongjiang province, and started large-scale breeding. ]]> https://agrospectrumasia.com/news/160/472/israels-betterseeds-develops-first-cowpea-suitable-plant-for-mechanised-harvesting.html https://agrospectrumasia.com/news/160/472/israels-betterseeds-develops-first-cowpea-suitable-plant-for-mechanised-harvesting.html Fri, 27 Jan 2023 14:57:49 +0530 The gene edited Cowpea is set to be field tested in the USA in spring 2023. The first Cowpea plant made suitable for mechanised harvesting is being developed by Israel-based BetterSeeds, an Agri-Tech company that genetically enhances agricultural crops by using its proprietary genome editing technology. BetterSeeds is set to plant its enhanced Cowpea seeds in the United States in the spring of 2023, in order to test its potential for mass-scale cultivation. Cowpea, also called Lubia or black-eyed peas, is the most ancient crop known to have been farmed by man. Due to its high protein content, heat tolerance and highly efficient water and fertilizer consumption, Cowpea is an exceedingly sustainable legume with enormous nutritional and agronomic value. Soybean, the most abundantly grown legume, requires large quantities of water and fertilizers and grows well only in a temperate climate, and as such its yield is forecasted to decline by 30 per cent in the upcoming decade due to global warming. Thus, Cowpea, as a sustainable food and plant-based protein source, is a leading legume candidate to fill the gap in Soybean yield due to climate change. Before BetterSeed’s successful gene editing achievement, Cowpea's plant architecture and fruit appearance were not fit for mechanised harvesting and therefore could not be grown at scale. The Cowpea, an indeterminant plant that sprawls on the ground with the gradual appearance of pods, could only be harvested by hand and is grown in developing regions where labour is less expensive. BetterSeeds redesigned Cowpea by targeting the gene which alters the plant's architecture into a determinant and erect plant with simultaneous pod appearance, thus fitting Cowpea for mechanised harvesting by a combine – just like Soybean! With this redesigned Cowpea farmers can both increase their versatility of legume cultivation, utilise their land all year round and also ensure the market of sustainable supply of plant-based protein. Ido Margalit, BetterSeeds CEO said, "If I had to choose one crop to focus on, it’s Cowpea, since we are facing a huge shortfall in the supply of plant-based proteins, namely Soybean, due to climate change. Cowpea has the capability to fill in this gap pending its redesign to make it fit for mass-scale cultivation which is exactly what BetterSeeds is doing. Cowpea will help to feed the world!" ]]> https://agrospectrumasia.com/news/160/455/department-of-agriculture-and-farmers-welfare-of-the-government-of-odisha-reaffirms-state-support-to-irris-state-programs.html https://agrospectrumasia.com/news/160/455/department-of-agriculture-and-farmers-welfare-of-the-government-of-odisha-reaffirms-state-support-to-irris-state-programs.html Mon, 23 Jan 2023 15:03:37 +0530 Principal Secretary visits IRRI’s program sites in Puri, Odisha, reaffirming support towards food sustainability Arabinda Kumar Padhee, Principal Secretary of the Department of Agriculture and Farmers Welfare of the Government of Odisha, visited IRRI’s program sites in Puri, Odisha, reaffirming support towards food sustainability. The State Policymaker and Administrator was accompanied by several key agriculture officials including the Chief District Agriculture Officer (CDAO) of Puri. During the visit, a varietal cafeteria also known as nutritional cafe was presented to the delegation. The crop cafeteria has 12 newly released rice varieties that are rich in protein and micronutrients such as zinc. IRRI, with the support of the Government of Odisha and its associated agencies, has been developing and evaluating several high yielding varieties (HYV), stress tolerant rice varieties (STRV), and biofortified varieties under the Institution’s umbrella strategy called One Rice Breeding. This strategy includes comprehensive seed system initiatives and breeding research programmes to evaluate and position new varieties in farmers’ fields. Padhee also observed a unique comparative trial of direct seeded rice (DSR) and puddled transplanted rice (PTR) as facilitated by the IRRI Agronomy and Seed System  team. For the past few years, IRRI has been actively scaling up the promotion of DSR in the state. “Such comparative experiments of technologies and processes will help farmers to choose what is best for them”, Padhee shared. He further expressed his appreciation of the benefits of early maturity under DSR and good crop stands of different varieties that participated in the experiment such as the Binadhan 11, Binadhan 17, MTU 1156, BRRI dhan 75 as well as other popular Bayer hybrids such as the Arize 6411 and Arize Tej Gold. The research and delivery efforts around DSR as a comprehensive technology in the state is further strengthened through IRRI, in collaboration with Bayer, convergence of the new United States Agency for International Development (USAID) initiative dedicated towards smallholder farmers and continued efforts of the Direct Seeded Rice Consortium (DSRC). The team also observed varieties that were a part of the research collaboration between IRRI and Odisha University of Agriculture and Technology (OUAT). Specifically, the hybrid variety Arize 6444 was discussed to have the potential to replace older varieties. Towards the end of the visit, the delegation surveyed a large-scale cluster demonstration of different agronomic practices where sprawling patches of DSR varieties that exhibit early maturity and excellent crop growth are planted. “I want our farmers to see these benefits for themselves and we need to arrange a learning visit for our farmers at IRRI demonstration locations.”, Padhee stated Moving forward, IRRI plans to adapt the suggestions of the Secretary to coordinate with the district machinery to organise more visits for farmers. IRRI will also implement rapid scaling of best-fit technologies as part of the long-time ongoing support to the Government of Odisha to improve the productivity of rice-based cropping systems in the state. The ongoing research activities of IRRI aims to contribute to the state’s larger developmental agenda of food and nutrition security and farmers' welfare. ]]> https://agrospectrumasia.com/news/160/452/china-approves-import-of-8-gm-crops.html https://agrospectrumasia.com/news/160/452/china-approves-import-of-8-gm-crops.html Mon, 23 Jan 2023 13:17:22 +0530 Bayer CropScience's herbicide-tolerant genetically modified alfalfa received its first approval after waiting as long as ten years.  The Ministry of Agriculture and Rural Affairs of the People’s Republic of China has approved imports of eight genetically modified (GM) crops, which includes GM alfalfa for the first time. After a decade-long wait, the Chinese agriculture ministry gave approval for five years. At the same time, Beijing pledged to speed up the approval process of genetically modified products and promote the commercialisation of genetically modified products in the market under the first phase of the trade agreement reached with the United States in 2020. This approval not only opens the door for foreign countries to supply and export markets but also paves the way for more genetically modified crops to be planted in China. China is one of the world's largest agricultural markets, but China has so far only allowed the import of genetically modified crops for animal feed and has not approved the cultivation of any major genetically modified food crops. For example, sugarcane, canola, and alfalfa for animal feed and cotton for textiles were approved. The approval process has been slow amid official wariness about GM crops. Therefore, this approval is a positive step in addressing the long-standing challenges faced by biotech developers in obtaining import approvals in China. Among them, Bayer CropScience's herbicide-tolerant genetically modified alfalfa received its first approval after waiting as long as ten years. For alfalfa growers in all continents of the United States, China's approval of the import of genetically modified alfalfa undoubtedly provides them with an opportunity to expand their planting scale and also accelerates the commercialisation process of genetically modified alfalfa in the Chinese market.   China has also approved three domestically produced genetically modified products, including 2 GM corn projects and 1 GM soybean project. The corn project is the insect-resistant and herbicide-resistant corn BFL4-2 with cry1Ab, cry1F and cp4epsps genes jointly developed by Longping High-Tech and the Academy of Agricultural Sciences, and the herbicide-resistant corn CC-2 with the mark ACC gene jointly developed by China Forest Seed Group and Agricultural University. The soybean project is the insect-resistant soybean CAL16 with cry1Ab/vip3Da gene transgenic developed by Hangzhou Ruifeng.  ]]> https://agrospectrumasia.com/news/160/442/israel-joined-the-united-nations-treaty-for-the-conservation-of-genetic-diversity.html https://agrospectrumasia.com/news/160/442/israel-joined-the-united-nations-treaty-for-the-conservation-of-genetic-diversity.html Thu, 19 Jan 2023 13:24:14 +0530 The Treaty focuses on steps and actions for the preservation and cultivation of 64 specific plant crops defined as having a special benefit to human health and food security. The State of Israel, through the Ministry of Agriculture and Rural Development and in collaboration with the Volcani Institute, joined the International Treaty on Plant Genetic Resources for Food and Agriculture (ITPGRFA) of the Food and Agriculture Organisation of the United Nations (FAO). This Treaty is aimed at serving as a platform for global cooperation, in order to preserve genetic sources for plant food crops of special nutritional importance and to encourage the cultivation of a variety of species resistant to extreme climate conditions. This, in order to ensure the continuation of production, improvement and maximisation thereof, is a tool to establish a regular supply of fresh plant-based food even under the reality of an extreme and changing climate. The Treaty focuses on steps and actions for the preservation and cultivation of 64 specific plant crops defined as having a special benefit to human health and food security, such as Wheat, carrots, chickpeas, lentils, oats, etc. As part of the Treaty, the participating countries undertake to act to preserve biodiversity, which helps in cultivating food sources, at two key levels: Preservation within the genetic bank as plants growing in the fields, and preservation outside the site. In this manner, access is provided to those genetic sources for research and cultivation purposes, which allows work to be done towards reducing the continuous erosion of these sources, in conjunction with the expansion of the genetic pool of the crops through gene banks from all over the world, and the promotion of cultivation processes that will minimise the sensitivities of certain crops and genetic dilution (erosion), as a result of climate change. The Ministry of Agriculture explains that the State of Israel's joining this Treaty will first and foremost allow researchers, developers and farmers to gain access to central genetic resources for the development of varieties adapted to climate change, through collaborations between the Israeli Gene Bank and various genetic repositories from all over the world, in parallel to fostering the State of Israel's position as a key actor in globally gearing up for climate change. Yakov Poleg, Senior Deputy Director General of the Centre for Foreign Trade and International Cooperation at the Ministry of Agriculture and Rural Development, said "The signing of the Treaty is another important milestone in the gearing up on the part of the State of Israel for the climate crisis and it expresses our commitment in the matter of the preservation of the genetic diversity found in the sovereign domains of the State of Israel." Dr Einav Maizlish-Gati, Director of the Israeli Gene Bank at the Volcani Institute, stated, "The signing of the Treaty will allow us, at the national level, access to additional genetic sources in order to increase the range of attributes available to us when we come to deal with climate change and to ensure food security for the residents of the State of Israel. Our joining the Treaty is of additional importance in making the unique biological diversity, that exists in Israel, accessible to our partners in the world in a manner that will allow us to maintain sovereignty over the local genetic sources." ]]> https://agrospectrumasia.com/news/160/437/china-to-focus-on-agricultural-sci-tech-innovations-in-2023.html https://agrospectrumasia.com/news/160/437/china-to-focus-on-agricultural-sci-tech-innovations-in-2023.html Wed, 18 Jan 2023 12:56:30 +0530 CAAS will focus on six fields including seed research and development, arable land conservation, agricultural machinery and equipment, agricultural bio-security and green agriculture. The Chinese Academy of Agricultural Sciences (CAAS) will continue to promote scientific and technological innovation to support the construction of a strong agricultural sector in China, according to Xinhua news agency. According to the CAAS, innovation efforts in 2023 will focus on six fields. These fields are -- seed research and development, arable land conservation, agricultural machinery and equipment, agricultural bio-security, green agriculture, and rural development. Wu Kongming, president of the CAAS, highlighted the role of sci-tech innovation in agricultural development at the CAAS 2023 Working Conference. Wu pointed out that at present, China ranks top in the world in terms of both the number of highly cited papers and the number of invention patent applications in the agricultural field. The contribution rate of agricultural sci-tech progress in China had increased from 54.5 per cent in 2012 to 61.5 per cent in 2021, while the comprehensive mechanisation level of crop cultivation, planting and harvesting, had grown from 57 per cent in 2012 to over 72 per cent in 2021. "This year, we will accelerate the integration of science and education, science and industry, and enhance our overall ability to support the stable and safe supply of food and important agricultural products, and promote rural revitalisation," Wu said. He also said that in 2023, the institute will continue to expand international exchanges and cooperation in agricultural science and technology. CAAS will continue to promote the building of global alliances in agricultural sci-tech innovation. Joint research and technology demonstrations will be carried out in cooperation with neighbouring countries, as well as key countries related to the Belt and Road Initiative, he added. According to Wu, CAAS signed letters of intent for cooperation with 19 international partners in 2022 -- featuring 121 new international cooperation projects -- 1.5 times the number recorded in 2021. The academy is preparing the construction of a China-Africa agricultural science and technology innovation alliance. The construction of joint laboratories in Kazakhstan, Romania and Uruguay is also progressing smoothly. During the annual conference, the academy also unveiled ten major agricultural science advances achieved during the past year, including studies in high-yield genes in rice, genetic diversity in potatoes and genetic variation in tomatoes. One of the major discoveries of Chinese agricultural scientists is a gene in crops which can improve the efficiency of photosynthesis and nitrogen utilisation -- and significantly boost grain yield. Another study by Chinese scientists is the first to reveal the complete process of chitin biosynthesis, providing a new direction for the original innovation of green pesticides. ]]> https://agrospectrumasia.com/news/160/392/fresh-corn-grains-from-liaocheng-china-enter-space.html https://agrospectrumasia.com/news/160/392/fresh-corn-grains-from-liaocheng-china-enter-space.html Fri, 06 Jan 2023 10:09:15 +0530 The primary purpose of this space experiment is to break the old chain and achieve new recombination by mutagenesis caused by cosmic rays, and microgravity. The Shenzhou XV spacecraft, China's 10th manned spaceflight, entered its designated orbit on Nov 29. Among the passengers aboard the Shenzhou XV were 400 fresh corn grains bred by the Liaocheng, which will be used to carry out science experiments in space. "The 400 fresh corn grains are of the same breed and weigh about 60 grams, and have a rich genetic background and gene types after breeding in the south and the northern areas of the country," said Zhang Guige, director of Modern Breeding Technology Innovation Centre of Liaocheng Academy of Agricultural Sciences. The primary purpose of this space experiment is to break the old chain and achieve new recombination by mutagenesis caused by cosmic rays, microgravity and high vacuum in space. It is the first time in the 60-year breeding history of the Liaocheng to carry experiments out in space and implement space breeding with a Shenzhou spacecraft. It is also an example of the Liaocheng development of modern biological breeding research and its transformation from the breeding 2.0 era to the breeding 4.0 era. It is reported that the Liaocheng Academy of Agricultural Sciences was established in 1959, and breeding research has always been its strength. The maize variety ‘Liaoyu 18’ created by it has been popularized throughout the country, generating social and economic benefits of 4.94 billion yuan ($707.32 million). Since 2019, the Institute has bred 290 excellent maize inbred lines and 32 new excellent wheat lines through modern biotechnology such as hybridisation, radiation mutagenesis and haploid. ]]> https://agrospectrumasia.com/news/160/379/sw-and-trigall-genetics-announce-jv-for-wheat-breeding-in-australia.html https://agrospectrumasia.com/news/160/379/sw-and-trigall-genetics-announce-jv-for-wheat-breeding-in-australia.html Wed, 04 Jan 2023 11:29:13 +0530 Trigall Australia will develop and market high performing wheat varieties for the Australian market. Trigall Genetics, the world leader in wheat biotechnology co-owned by Bioceres Crop Solutions and Florimond Desprez, and S&W Seed Company, a leading middle-market agricultural company, have entered into a joint venture to advance wheat breeding activities in Australia. Trigall Australia will develop and market high performing wheat varieties for the Australian market, leveraging S&W's existing commercial footprint and Florimond Desprez's and Bioceres Crop Solutions' breeding expertise. The program will encompass both conventional and transgenic varieties, including Bioceres Crop Solutions' drought-tolerance HB4® technology and EcoWheat® technologies, that can contribute to improving yields in a region whose productivity has been increasingly affected by drought and soil salinization. The new breeding program is expected to benefit from the introduction of top tier genetics from Florimond Desprez and Trigall Genetics worldwide breeding programs, combined with state-of-the-art facilities to accelerate genetic gain for the region. For Trigall Genetics the joint venture is part of its international expansion strategy into major wheat producing regions, as it will gain access to S&W's Australia-adapted genetic materials, adding to its existing germplasm library from Europe and MENA through Florimond Desprez and South America from Bioceres Crop Solutions. François Desprez, president of Trigall Genetics and Florimond Desprez said, "Through this JV, Florimond Desprez continues with the internationalization of its wheat breeding activities. We believe the company's accumulated knowledge and skills in terms of breeding techniques will boost the existing platform developed by S&W Seed in Australia to serve the needs of local growers and the grain industry." Mark Wong, CEO of S&W Seed added, "We are excited to enter this JV to combine our commercial footprint with the unique technologies and expertise of our partners." ]]> https://agrospectrumasia.com/news/160/247/impacfat-to-showcase-its-cultivated-fish-fat-in-singapore.html https://agrospectrumasia.com/news/160/247/impacfat-to-showcase-its-cultivated-fish-fat-in-singapore.html Thu, 01 Dec 2022 16:04:47 +0530 The world’s first cultivated fish fat presents a tasty and nutritious way to add a rich mouthfeel to alternative proteins, globally ImpacFat will be introducing their cultivated fish fat at the Big Idea Ventures Demo Day showcase. The world’s first cultivated fish fat presents a tasty and nutritious way to add a rich mouthfeel to alternative proteins, globally. ImpacFat will hold a tasting session at the event for selected participants, which was granted by the Singapore Food Agency (SFA). The tasting session will be held at Big Idea Ventures’ 6th Demo Day taking place at Singapore’s National Gallery. Demo Day happens at the culmination of Big Idea Ventures’ 5-month accelerator programs held in Singapore, Paris, and New York and is an exclusive event where investors and corporates within the alternative protein space get a chance to meet the innovative companies within the Big Idea Ventures portfolio. Although the market for meat and seafood alternatives is growing, there still seems to be a gap when it comes to the taste and texture of alternative vs traditional meats. The reason for this is due to a lack of focus on the production of fats, a crucial ingredient that imparts texture, aroma, and flavour to meats. This gap is one of the major factors deterring consumers from converting to alternative meat products. Fat cells are an important part of animal meat that enhance good mouthfeel. Examples of such fat include the marbling of beef and toro of sashimi. It is becoming more and more evident that working on fat solutions that produce delicious products is essential for the alternative meats industry. ImpacFat makes use of the well-known nutritious characteristics of fish fat, to naturally enhance the texture and juiciness of alternative protein products. “As a consumer, we may think that fat is bad and want to reduce our fat intake. However, ImpacFat wants the world to know that fat can be good too! Since fat is essential in our diet, why not take the healthiest one? ImpacFat aims to give that healthiest fat that you will want to gain, while at the same time protecting the animals and environment. We can’t wait to let everyone taste our healthy and tasty fish fat!” — Says Mandy Hon, Managing Director, ImpacFat Pte. Ltd. ImpacFat’s cell-based fish fat is expected to have an impact on two main areas. Firstly, it provides health benefits to consumers. Being enriched with omega-3 fatty acids, the cell-based fish fat is expected to be more resistant to oxidation and other chemical and physical changes. Secondly, it assists in sustainable food production. The products are produced in an environmentally friendly and sustainable manner that does not lead to overfishing, or intensive land or water use, and help to reduce greenhouse emissions. In addition, it does not contain any environmental pollutants often found in seafood, such as mercury, microplastics, and pathogens. "Consumers want alternative proteins that exceed the taste and nutrition profiles of the conventional meat and seafood they know and love—a standard most believe the sector has not yet achieved. The addition of cultivated fish fat, developed by expert-led startups like ImpacFat, could be exactly what's needed to take such products to the next level." — Says Mirte Gosker, Managing Director, The Good Food Institute APAC—Asia's leading alternative protein think tank. ]]> https://agrospectrumasia.com/news/160/227/gm-crops-benefit-southeast-asia.html https://agrospectrumasia.com/news/160/227/gm-crops-benefit-southeast-asia.html Thu, 24 Nov 2022 12:03:56 +0530 In Southeast Asia, 630,000 farmlands are planted with Bt Corn for $729 million in economic benefits. Genetically engineered crops benefit Southeast Asian regions, including the Philippines, Southeast Asian Regional Centre for Graduates Study and Research in Agriculture (SEARCA) Director Glenn Gregorio said in a forum on Philippines Biotech Regulations. According to the local media, Gregorio said In Southeast Asia, 630,000 hectares of farmlands are now planted with Bt Corn for $729 million in economic benefits. "The Philippines is the first country in Southeast Asia to implement a regulatory framework on genetically engineered crops. In 2003, the Philippines also became the first Southeast Asian country to commercialize and plant a biotech crop, Bt Corn. Since then its adoption rate has reached almost 100 per cent, its 97 per cent, and has covered more than half a million hectares, now it 630,000 hectares and it has led to an estimated farm level of economic benefits of $720 million," Gregorio said. "In addition to Bt Corn, we now have Bt Talong and excitingly we have the Golden Rice already. They are harvesting Golden Rice for distribution, and it is approved for commercial cultivation. These and other biotech crops in the pipelines can potentially contribute to attaining food and nutrition security, improving farmers' income, health, and economy, and ensuring environmental protection," he said. ]]> https://agrospectrumasia.com/news/160/63/harvesting-farmer-network-raises-4-mn-from-social-capitalefbfbc.html https://agrospectrumasia.com/news/160/63/harvesting-farmer-network-raises-4-mn-from-social-capitalefbfbc.html Tue, 30 Aug 2022 16:19:34 +0530 Harvesting Farmer Network (HFN), a leading agriculture technology platform in India, has raised $4 million from Social Capital, a Silicon Valley-based technology investment firm managed by Chamath Palihapitiya. This is the first institutional round raised by HFN, which will be used to reach more than 120 million smallholder farmers across India, as well as explore opportunities in India’s rural markets. HFN helps smallholder farmers (defined by the UN as a farmer owning less than 2 hectare of land) in India to increase their income by empowering them with a collective bargaining platform. Through HFN’s platform, farmers are able to buy farm inputs, access financial services such as loans and insurance, as well as sell their crops to national and international customers enabling them to scale and grow their businesses. Founded by Ruchit Garg during COVID-19, HFN was created to reduce the friction between farmers and buyers, initially by enabling them to connect directly on Twitter. Since then, more than $500 million of crops, consisting of over 360 crop varieties, have been listed on HFN’s digital platform from every state across India. These crops have been sold domestically as well as to international markets. A global agricultural powerhouse, India produces more than $275 billion of crops annually. As of August 2022, more than 3.7 million farmers are digitally connected to the HFN platform, witnessing a 2.5X increase in their crop earnings. Recently, many forward-thinking farmers have even launched offline centres known as “HFN Kisan Centres” to help fellow local farmers sell their crops and buy staple inputs such as seeds and fertiliser at affordable prices. Ruchit G Garg, Founder CEO of HFN, said: “At HFN, our goal is to help farmers realise their full potential by reducing the plethora of inefficiencies across the agriculture value chain. Simple and widely-available technologies like WhatsApp and Twitter have allowed us to create massive data-driven farmer co-operatives, which allows farmers to negotiate better rates for farm inputs and more competitive prices for outputs.” Jay Zaveri, Partner at Social Capital, said: “India is one of the bread baskets of the world and we’re excited to partner with HFN to bring a safe, secure, and empowering platform to the more than 120 million smallholder farmers across India. Our goal is to enable Indian households to access high-quality farm produce and for farmers to build a profitable livelihood through HFN.” HFN plans to use the new funding to rapidly expand its footprint across India, and over the next 12 months, it expects to connect farmers in every single one of India’s 708 districts across the country. ]]> https://agrospectrumasia.com/news/160/29/icrisat-showcases-chickpea-germplasm-to-key-researchers-in-india.html https://agrospectrumasia.com/news/160/29/icrisat-showcases-chickpea-germplasm-to-key-researchers-in-india.html Thu, 25 Aug 2022 11:35:56 +0530 Chickpea researchers got an opportunity to observe in person and select desirable germplasm among over 10,000 accessions that originated in more than 50 countries. With an aim to enhance use of chickpea germplasm in India’s crop improvement, ICRISAT Genebank organized a germplasm field day at its global headquarters in Patancheru and displayed chickpea germplasm diversity and trait-specific sources to various researchers participating in the event. Chickpea researchers got an opportunity to observe in person and select desirable germplasm among over 10,000 accessions that originated in more than 50 countries. This included pan genebank accessions from ICRISAT genebank (>3,500 accessions) and ICAR-NBPGR (1,500 accessions), 292 highly diverse reference set collection, 2,200 accessions of whole-genome sequenced, and 223 superior haplotypes. Twenty-one researchers from eleven Indian institutions participated in the event. ICAR-National Bureau of Plant Genetic Resources, New Delhi and Hyderabad, ICAR-Indian Institute of Pulses Research, Kanpur, Bihar Agricultural University, Bhagalpur, University of Agricultural Sciences, Dharwad, Sher-e-Kashmir University of Agricultural Sciences and Technology of Jammu, Indira Gandhi Krishi Vishwavidyalaya, Raipur, Haryana Agriculture University, Hisar, Rajasthan Agricultural Research Institute Durgapura, Punjab Agricultural University, Ludhiana, Glocal University Training & Research Center, Hyderabad, and Acharya NG Ranga Agricultural University, Nandyal. Dr Kuldeep Singh, Head – Genebank, ICRISAT, welcomed the participants, and explained the importance of germplasm conservation and laid stress on the use of diverse germplasm in crop improvement. He also emphasized on other research areas in chickpea, including the use of superior haplotypes for yield-related traits, identified at ICRISAT through the whole-genome sequencing of 3,366 accessions. Dr Arvind Kumar, Deputy Director General – Research ICRISAT, emphasized the importance of germplasm in trait improvement. The ICRISAT and ICAR-NBPGR genebanks are leading, with one of the largest efforts on phenotypic and genomic characterization of over 5,000 chickpea germplasm, translating these efforts to integrate in the breeding pipeline for chickpea improvement. Dr Patrick Okori, Cluster Leader – Seed Systems, ICRISAT, while addressing the participants shared that, “The project supported by DBT, India will help to improve chickpea productivity in the country and across the globe. Diversifying the cropping system in Africa, with crops like chickpea which grow in a short time, can help us effectively address the issue of malnutrition.” ]]> https://agrospectrumasia.com/news/160/28/cibus-granted-patent-for-productivity-trait-in-canola-and-oilseed-rape-crops.html https://agrospectrumasia.com/news/160/28/cibus-granted-patent-for-productivity-trait-in-canola-and-oilseed-rape-crops.html Thu, 25 Aug 2022 11:33:13 +0530 United States Patent and Trademark Office (USPTO) granted the company a patent for its Pod Shatter Reduction (PSR) Trait. Cibus, a leader in precision gene editing in agriculture, announced that the United States Patent and Trademark Office (USPTO) granted the company a patent for its Pod Shatter Reduction (PSR) Trait. The PSR Trait, developed using the company’s Rapid Trait Development System® (RTDS), strengthens the sheath that contains the Canola (oilseed rape) seeds and, in so doing, reduces pod shatter yield losses. Pod shatter refers to the pre-harvest release of oil seeds when the pod seam and connective tissue of the sheath that contains the Canola seeds breaks apart and releases the seeds. This occurs due to either a weakened pod seam or pod fracturing due to bad weather. Cibus’ PSR Trait reduces these yield losses due to pod shatter. PSR is called a Productivity Trait because it is part of a class of agricultural traits that address productivity and sustainability in farming by improving crop yields and lowering costs like diesel, fertilizer, and crop protection chemicals. Greg Gocal, EVP and CSO at Cibus said, “It is a highly effective trait that has been developed using RTDS and has been validated in field trials over several years. We are preparing for the commercialization of PSR in the United States and Canada. We are expecting that our Pod Shatter Reduction Trait will be one of the first gene-edited traits launched in Europe subject to legislative changes in the UK and EU.” Canola is a major global crop that is now planted on more than 50 million acres in North America, Europe, and Australia. It is second only to soybean as the most important annual crop source of vegetable oil in the world. Reducing pod shatter is a critically important trait for Canola farmers because pod shatter can result in yield losses of 10 per cent or more and increased expenses in farming practices during harvest. Cibus’ PSR Trait increases yields but also lowers the cost of farming by improving the flexibility for straight combining of canola and wheat, providing farmers the option to harvest wheat at the best possible time for the grain quality. “Canola is a foundational crop for Cibus. Following PSR, we have a pipeline of additional Productivity Traits for Canola developed using RTDS. These include traits for Sclerotinia resistance and nitrogen use efficiency. Importantly, these are all traits that are critical to addressing farming sustainability as they would increase yields and lower the use of inputs like fuel, fungicides, pesticides, and fertilizers. Once developed, we believe that each of these traits will be important in many different crops,” said Rory Riggs, Chairman and CEO at Cibus. ]]> https://agrospectrumasia.com/news/160/27/corteva-basf-ms-technologies-partners-to-bring-industry-first-soybean-trait-stack-in-us-canadaefbfbc.html https://agrospectrumasia.com/news/160/27/corteva-basf-ms-technologies-partners-to-bring-industry-first-soybean-trait-stack-in-us-canadaefbfbc.html Thu, 25 Aug 2022 11:28:41 +0530 As part of this agreement, Corteva and MS Technologies have licensed the Enlist E3 soybean trait to BASF for development with the NRS trait in BASF germplasm Corteva Agriscience, BASF and MS Technologies recently announced that they have entered into a mutually beneficial trait licensing agreement to develop next-generation Enlist E3 soybeans with the nematode resistant soybean (NRS) trait for farmers in the United States and Canada. As part of this agreement, Corteva and MS Technologies have licensed the Enlist E3 soybean trait to BASF for development with the NRS trait in BASF germplasm. BASF has licensed its NRS trait to Corteva and MS Technologies for use in Enlist E3 soybeans. The three companies anticipate commercialisation of Enlist E3 soybean varieties containing the NRS trait in the late 2020s, pending applicable regulatory reviews and completion of field testing. The new NRS trait is expected to provide unprecedented protection against nematode pests in soybeans, including soybean cyst nematode (SCN). “Our nematode resistant soybean trait will be the first commercially available biotechnology trait developed to control nematodes,” said Linda Trolinder, Senior Vice President of BASF Seeds and Traits R&D. “BASF is in its 5th year of advanced field testing the NRS trait in the US and in our trials, it has demonstrated an average 8 per cent yield benefit above today’s SCN-resistant varieties.” The Enlist weed control system is an industry-leading system for soybeans, corn and cotton. Enlist E3 soybeans are tolerant to 2,4-D choline, glyphosate and glufosinate herbicides, giving farmers additional options to manage resistant and hard-to-control weeds. ]]> https://agrospectrumasia.com/news/160/26/national-workshop-on-genome-editing-discusses-advancements-in-research.html https://agrospectrumasia.com/news/160/26/national-workshop-on-genome-editing-discusses-advancements-in-research.html Thu, 25 Aug 2022 11:25:41 +0530 The 7-day online workshop was attended by over 350 young researchers and faculty members belonging to the various fields of biotechnology A “National Workshop-cum-Webinar on Genome Editing” has been organised from June 27 to July 3, 2022 online with an objective of communicating the advances in science and technology to young students and researchers. This workshop was organised under the Chairmanship of Prof KC Bansal, Secretary of the National Academy of Agricultural Sciences (NAAS), New Delhi, who is a former Director of the premier institution of ICAR, the National Bureau of Plant Genetic Resources (NBPGR). Co-Chaired by a world-renowned scientist Prof Yiping Qi, Associate Professor, University of Maryland, USA, the 7-day online workshop was attended by over 350 young researchers and faculty members belonging to the various fields of biotechnology. Speakers included Dr KA Molla, Scientist, NRRI, Cuttack; Dr Siddharth Tiwari, Scientist, NABI, Mohali; Dr P Chander Shekhar, Principal Scientist, CSIR-CCMB, Hyderabad; Dr Debojyoti Chakraborty, Senior Scientist, CSIR-IGIB, New Delhi; Dr Viswanathan Chinnusamy, Principal Scientist, IARI, New Delhi and Dr Naveen Bisht, Staff Scientist V, NIPGR, New Delhi. The scientists who will be speaking during the next three days include Dr Kavita Babu, Principal Investigator, IISc, Bangalore; Dr Deepti Trivedi Vyas, Scientist, NCBS, Bangalore; Dr Amit Ghosh, Assistant Professor, IIT, Kharagpur; Dr Basudev Ghoshal, Research Scientist, Agriculture and Agri-Food Canada and Dr D T Singh, Founder & President, CloudSeq Pte Ltd, Singapore. Prof KC Bansal highlighted the current state of Gene Editing and mentioned that since Government of India has recently issued guidelines easing the norms for bio-safety assessment for developing genome-edited crops, more opportunities have opened into the research and development in this field, and therefore, this workshop is the need of the hour. The Gene Editing technology enables the manipulation of targeted genes in a precise and efficient manner in many organisms and cell lines, and has become indispensable for all life sciences researchers globally, ranging from agriculture to pharma to health sectors. ]]> https://agrospectrumasia.com/news/160/25/agri-genomics-start-up-piatrika-biosystems-secures-1-2-mn-in-seed-funding.html https://agrospectrumasia.com/news/160/25/agri-genomics-start-up-piatrika-biosystems-secures-1-2-mn-in-seed-funding.html Thu, 25 Aug 2022 11:21:32 +0530  Seed funding was led by Ankur Capital to build a platform for the discovery of new sustainable crop varieties. India/UK-based Agri-Genomics start up, Piatrika Biosystems has raised $1.2 million in a seed round led by Ankur Capital. The company is bringing sustainable seeds and agri chemicals to market faster and cheaper. The investment will be used to build a strong Product Development team, also for more profound research, and to accelerate the productionising and commercialization of MVP. ​ Piatrika Biosystems is incubated out of NIAB (Cambridge, UK) & ICRISAT (Hyderabad, India) and working with Researchers, Seed companies & Research institutes. Founded in 2019 by Vasudev Kumanduri and Phani Yarlagadda, Piatrika Biosystems is also building a new innovative cloud-based enterprise Platform-As-A-Service (PAAS) for agri-genomic discoveries and plant breeding decision support, program designing, and monitoring. The seed discovery platform is supported by novel technologies in computational biology and data science, integrating this with autonomous phenotypic, temporal, and spatial data capture for more accurate analysis helps enhance the discovery process. The company aims to bridge the gap between scientific research and commercial enterprise solutions. Vasudev Kumanduri, Co-Founder & CEO, Piatrika Biosystems, said, “There remains a significant disconnect between state-of-the-art research and its practical implementation. This means that while there has been ground-breaking research in recent years in computational biology / genomics, data science, cloud and instrumentation, this important knowledge has not been applied in a timely practical manner in agriculture. There is an urgent need to translate these research advances into practical benefit for the agriculturist, the consumer and ultimately the planet through modern, sustainable and ethical food production.” Ritu Verma, Partner, Ankur Capital said, “We are excited to partner with Piatrika on their journey to enable and create new seeds through computational biology. With the challenges that agriculture faces both from climate and increased food demand, innovation in the seed sector is critical. With advances in computational biology, we see this as a critical tool to bring new seeds to market quickly.” ]]>