\u201cThis research is significant for the future of cotton farming,\u201d Johnson said. \u201cIt\u2019s exciting to be part of a team using cutting-edge genetic tools to solve real-world agricultural problems.\u201d<\/p>\n
From discovery to application<\/strong><\/p>\n Christopher Saski<\/a>, a plant geneticist and translational scientist in Clemson\u2019s College of Agriculture, Forestry and Life Sciences<\/a>, is leading this initiative. The project is funded by the U.S. Department of Agriculture\u2019s National Institute of Food and Agriculture (USDA-NIFA) and Cotton Incorporated.<\/p>\n Don Jones<\/a> of Cotton Incorporated serves as a co-investigator. Sonika Kumar<\/a>, a senior scientist and postdoctoral fellow in Saski\u2019s lab, is also a co-investigator.<\/p>\n The project builds on a previous USDA-NIFA-funded study that focused on gene discovery. The current phase translates those discoveries into practical applications using CRISPR-Cas12a and other advanced genetic engineering tools. The team aims to develop high-yielding Upland cotton varieties with Pima-like fiber quality, enhanced seed traits and resistance to Fusarium wilt (FOV4)\u2014a disease that has devastated cotton crops across the U.S.<\/p>\n The goal is to create a dual-purpose crop that boosts economic and environmental sustainability for cotton growers.<\/p>\n A student\u2019s role in high-impact research<\/strong><\/p>\n The project allows Johnson to gain hands-on experience in genetic engineering, molecular biology and scientific writing\u2014skills he plans to carry into a future career in agricultural biotechnology research.<\/p>\n \u201cThis project is giving me a better grasp of the current state of advanced cotton improvement,\u201d he said. \u201cIt\u2019s also preparing me for the scientific publication process, which is essential for a research career.\u201d<\/p>\n Saski praised Johnson\u2019s contributions, noting, \u201cJacob is a great example of how graduate students can contribute meaningfully to high-impact research that can rapidly translate into application.\u201d<\/p>\n Johnson intends to pursue a doctoral degree.<\/p>\n Mentorship and innovation<\/strong><\/p>\n Kumar, who oversees the plant tissue culture and regeneration pipelines, is mentoring Johnson. Her research credits include developing one of the most efficient cotton gene editing systems available today.<\/p>\n Kumar\u2019s expertise spans genetics, molecular biology and plant biology. She previously led a groundbreaking study on plant stem cells aboard the International Space Station and developed a regeneration platform for peaches.<\/p>\n For this project, she is guiding the selection of candidate genes and managing the transformation and regeneration steps to create genetically engineered cotton lines with improved oilseed traits.<\/p>\n Cotton\u2019s economic impact and Clemson\u2019s broader research<\/strong><\/p>\n Cotton remains a vital crop for South Carolina. According to the South Carolina Department of Agriculture, it is one of the state\u2019s top commodities. In 2024, growers planted 225,000 acres of Upland cotton, generating more than $144 million in production value.<\/p>\n Saski\u2019s research portfolio extends beyond this project. He has collaborated with Australian scientists to combat Fusarium wilt<\/a>, sent cotton genome research<\/a> to the International Space Station<\/a> and contributed to studies published in journals like Nature Genetics<\/a> and Nature Plants<\/a>. His work also explores herbicide resistance<\/a>, climate-resilient cotton varieties<\/a> and designer cottonseed<\/a>.<\/p>\n As the gene editing project progresses, Johnson and the team hope their work will lead to the release of novel cotton germplasm that benefits breeders, farmers and the broader agricultural community.<\/p>\nJacob Johnson <\/p>\n
Chris Saski <\/p>\n