GROW’s Post

This Week in Plant Science 🧬 Syngenta Group offers rights to selected genome editing and breeding technologies for academic research globally. This initiative aims to foster innovation and drive sustainability in agriculture. 🧪 This week, Pairwise  announced the world’s first seedless Blackberry developed using its proprietary Fulcrum™ Platform and announced a licensing agreement with Solis Agrosciences. 🌱 Researchers in the Department of Civil and Environmental Engineering at Carnegie Mellon University are at the forefront of an emerging field known as Plant Nanobiotechnology. Drawing on findings from nanomedicine and digital twin technologies, these researchers aim to address unsustainable agricultural practices and meet the growing global food demand. 🌽 NRGene Ltd. (TASE: NRGN), and MAS Seeds announced the completion of a major milestone in their 4-year collaboration. This partnership, initiated over a year ago, aims to enhance Mas Seeds’ maize breeding program and significantly reduce genotyping costs by utilizing NRGene’s genotyping and imputation solution, SNPer™. 🔬 DPH Biologicals announced the launch of its innovative Prime platform. This platform uses a patented production process for Bacillus spp. to accelerate the germination of bacterial spores.  Read the entire newsletter here -> https://lnkd.in/eWzn6FxJ #PlantScience #GenomeEditing #BreedingTechnologies #AgriculturalInnovation #Sustainability #SeedlessBlackberry #Nanobiotechnology #MaizeBreeding #Genotyping #BacterialSpores #InnovationInAgriculture

Check out this LA Weekly interview of our co-founders, Ido Margalit and Tal Sherman, that traces their trajectory from the seeds industry into the CRISPR revolution in agriculture. Under their leadership, we have successfully enhanced crops through cutting-edge gene editing techniques, with the main objective of developing seeds resilient to climate change. By leveraging our innovative CRISPR technology and our breakthrough traits, we aim to enhance the genetics of crops, collaborating closely with farmers and scientists to tackle the pressing agricultural challenges of climate change. Our vision extends towards a future where agriculture is both sustainable and capable of meeting the global demand for food. What we have achieved on our journey so far underscores the transformative potential of CRISPR technology within the agricultural sector. https://lnkd.in/eWGQY8iw #climatechange #crispr #geneediting #agritech #betterseeds

Breaking Ground in Agriculture with Gene Editing! Exciting news from the world of agtech! Ohalo Genetics is making waves with their innovative gene-editing technologies, transforming the way we think about agriculture. Here are some big highlights: 🌟 Gene-Edited Potatoes:  Ohalo has developed genetically modified potatoes with reduced glucose and fructose levels, minimizing spoilage during cold storage. They’ve also enhanced some variants with higher beta carotene for better nutritional value. These breakthroughs have received the green light from the USDA, moving them closer to market availability. 🛡️ Regulatory Success:  Positive outcomes from the USDA’s Regulatory Status Reviews (RSRs) mark a critical milestone, ensuring that these gene-edited crops are as safe as traditionally cultivated plants. This approval is a big step towards commercializing their innovative crops. 🌾 Advanced Crop Varieties:  Ohalo is not stopping at potatoes. They are developing various crops with improved yield, quality, and resilience. Their focus includes enhancing taste, nutritional value, and resistance to pests and diseases, making agriculture more sustainable and efficient. It’s incredible to see how technology is pushing the boundaries of what’s possible in agriculture. Ohalo Genetics’ advancements are set to make a significant impact on global food security and sustainability. Stay tuned for more updates as the world we know evolves! 🌍🌾 #AgTech #GeneEditing #Sustainability #Innovation 

CRISPR is revolutionizing agriculture, but how will regulation design the future of global competitiveness? The regulation of CRISPR technology in agriculture is shaping the global competitive landscape. Depending on regulatory approaches, some countries could lead the next agricultural revolution, while others risk falling behind. Countries like the U.S., Brazil, and Argentina are leveraging flexible regulations to drive agricultural innovation. Their ability to quickly develop and commercialize advanced crops positions them as leaders in productivity and climate resilience. These countries not only gain competitiveness but also position themselves as exporters of advanced agricultural technology, opening new opportunities in the global market. CRISPR regulation in agriculture not only defines a country's ability to innovate but also shapes its position on the global stage. The future of agriculture hinges on finding the right balance between regulation, safety, and technological advancement. Curious about how CRISPR is already being used to transform agriculture?  https://lnkd.in/dcM6i3xa #Agriculture #Technology #CRISPR #Innovation #Regulation #Competitiveness #Business

Thailand is advancing crop improvement through gene editing, focusing on food security and agricultural sustainability. Researchers are using CRISPR technology to enhance crop resilience and nutritional value, aligning with sustainable goals and meeting market demands. With support for biotech innovation, Thailand is positioning itself as a leader in AgTech, offering transformative solutions to strengthen regional agriculture. #AgTech #Biotechnology #CRISPR #VentureCapital #SustainableAgriculture #FoodSecurity #Innovation #Thailand

Breeding for Plasticity: Epigenetics Unlocks Crop Resilience   🌍 As climate change challenges agriculture, understanding how plants adapt is crucial. Genetic tools like #RNAi and #CRISPR are aiding in enhancing crop traits, but epigenetics presents a new frontier.   🔍 Traditional breeding focuses on genetics, but epigenetics explores how gene expression is modified without altering the genetic code itself. Sally Mackenzie and her team at Epicrop Technologies Inc are at the forefront of this field.   🔬 Epigenetics offers a glimpse into how plants respond to stressors like drought or cold. By decoding #DNA methylation patterns, researchers uncover gene pathways crucial for resilience.   💡 Sally Mackenzie's work isn't just about tweaking #genes; it's about enhancing a plant's inherent ability to adapt. This means faster, more efficient breeding for resilience, crucial in times like the 2022 North Dakota drought.   🌾 The potential impact? Increased yield, resilience, and adaptability, without sacrificing genetic #diversity. Imagine customizing crops to regional conditions, from drought-prone plains to water-logged basins.  🌾 Promising Results: Epigenetic modifications have boosted soybean yields by 5-14%, with effects lasting generations. Imagine tailoring crops for regional conditions, from drought-prone plains to water-logged basins!   In a world facing escalating climate challenges, epigenetics presents a promising avenue for sustainable agriculture. Through continuous innovation and collaboration, we're poised to unlock the full potential of plant plasticity for a greener, more resilient future. Sally Mackenzie Penn State University Penn State College of Agricultural Sciences Epicrop Technologies Inc  #PlantPotential #Epigenetics #CropResilience #SustainableAgriculture #ClimateChange #GeneticTools #CropScience #PlantResearch

Traditional plant breeding is slow and methodical. Imagine a scientist in the field, initiating a breeding program by transferring pollen from one flower to another with a paintbrush. Developing a variety this way can take years. Over the past decade, however, CRISPR gene editing has emerged as an option for fast-tracking new crop development in a time of cascading climate-induced agricultural threats. Now, a recent breakthrough by CBS faculty member Feng Zhang and members of his lab makes this gene-editing technique even more effective. Learn more below.

Last Chance to Register! Join us TOMORROW, March 20, from 10:30 AM to 1:30 PM CST at the Donald Danforth Plant Science Center in St. Louis, MO, for the highly anticipated rollout of the Council for Agricultural Science and Technology (CAST) issue paper on "Applications, Benefits, and Challenges of Genome Edited Crops." This paper provides a comprehensive overview of gene editing in agriculture, discussing its potential impact on producers, consumers, and the environment. Genome editing tools have been around for over a decade, but they are now being used to accelerate crop improvement and address challenges in agriculture. The use of genome editing in agriculture has the potential to revolutionize the industry, but it also brings with it unique benefits and challenges. Special Activities for College Students: In addition to the paper rollout, we have planned special activities for college students, including a tour of The Danforth Center facilities, a session to explore opportunities for student engagement with CAST, and networking time with researchers, experts, and industry leaders. Program Highlights: 10:30 AM – 12 PM CST: Presentation, Q&A, Panel Discussion 12 – 1:30 PM CST: Light Lunch and Networking 1:30 – 3 PM CST: Student Activities Panelists: David Ertl (Panel Moderator): Iowa Corn Growers Association Sarah Evanega: Okanagan Specialty Fruit, Cornell University, and 2021 Borlaug CAST Communication Award (BCCA) David Bubeck: Research Director, Corteva Agriscience Bernadette Juarez: Deputy Administrator, Biotechnology Regulatory Services, USDA-APHIS Jennifer Rowland: Biotechnology Coordinator, USDA Jack Cornell: Director of Sustainable Supply, United Soybean Board This is a FREE event, but registration is required. Don't miss out on this unique opportunity to learn about the future of agriculture! Register here: [Link to registration] Webinar Release: Can't attend the event? We will also have a webinar release of the paper on April 3. Stay tuned for more details. We would like to thank our sponsors, Bayer CropScience Vegetable Seeds, Corteva Agriscience, the National Corn Growers Association, and the United Soybean Board. Register now!

📄CRISPR–Cas systems and applications for crop bioengineering 👥 Uranga M*, Martín-Hernández AM, De Storme N, Pasin F CRISPR–Cas technologies contribute to enhancing our understanding of plant gene functions, and to the precise breeding of crop traits. Here, we review the latest progress in plant genome editing, focusing on emerging CRISPR–Cas systems, DNA-free delivery methods, and advanced editing approaches. By illustrating CRISPR–Cas applications for improving crop performance and food quality, we highlight the potential of genome-edited crops to contribute to sustainable agriculture and food security.

📄CRISPR–Cas systems and applications for crop bioengineering 👥 Uranga M*, Martín-Hernández AM, De Storme N, Pasin F CRISPR–Cas technologies contribute to enhancing our understanding of plant gene functions, and to the precise breeding of crop traits. Here, we review the latest progress in plant genome editing, focusing on emerging CRISPR–Cas systems, DNA-free delivery methods, and advanced editing approaches. By illustrating CRISPR–Cas applications for improving crop performance and food quality, we highlight the potential of genome-edited crops to contribute to sustainable agriculture and food security.