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FFAR » What We Do » Research Priorities » Scientific Workforce » New Innovator in Food & Agriculture Research Award
Program Contact
LaKisha Odom, Ph.D. lodom@foundationfar.org See the 2025 New Innovator RFA, updated February 10, 2025.
RFA, updated on February 10, 2025, is now available for download.
Applications are under review
Open Opportunity
The New Innovator in Food & Agriculture Research Award provides early-career scientists the investment needed to propel them into successful research careers.
Young faculty in the sciences often struggle to secure grant funding. We established the New Innovator Awards to launch the careers of promising scientists whose research addresses significant food and agriculture challenges. These awards allow the grantees to focus exclusively on research without the pressure of securing additional funding.
Expanding the production of low-input crops in the Northeast United States will strengthen the regional food system and support the increasing consumer demand for local and sustainable produce. In many temperate, humid regions, perennial crop production has focused on fruits such as apples and peaches, which are increasingly at risk from shifting weather patterns, pests and pathogens. Archer is examining the viability of alternative, low-input perennials for the Northeast, such as hazelnuts, which can better withstand extreme weather and pest threats and promote greater variety in Northeastern U.S. agriculture.
The enzyme RuBisCo plays a key role in photosynthesis as it binds directly to carbon dioxide. While the enzyme is notoriously inefficient, biochemical enhancements could enable it to increase both carbon capture and crop yield. Badran’s lab developed RuBisCo alternatives that improve photosynthetic efficiency, and the research team is aiming to apply these alternative enzymes to a variety of crops. By increasing photosynthetic efficiency, the researcher hopes to increase crops’ growth rate, yield and tolerance to high temperatures and drought.
In food processing and packaging environments, food contact surfaces often harbor microbes, compromising food safety and quality. Limited insights into microbe-contact surface-food interactions and engineering constraints impede the creation of effective antimicrobial food contact surfaces. Cheng is advancing nanoengineering and enhancing knowledge of these interactions to develop surfaces with nanostructures that disrupt bacterial cell walls upon contact, effectively killing bacteria without using biocides or sanitizers.
The tomato spotted wilt virus causes an estimated loss of $1 billion annually. Currently, producers manage the virus through genetically resistant varieties of tomato and pepper as well as insecticides to control thrips, an insect that spreads the virus. However, novel strains of tomato spotted wilt virus have overcome the genetic resistance, and thrips have developed insecticide resistance. Gadhave is developing a type of RNA that can deliver targeted therapeutics, both preventative and curative, specifically tailored against the virus and thrips to the tomato and pepper, helping to develop a novel, sustainable, economical, eco-friendly tool for pest management.
Beneficial partnerships that form between mycorrhizal fungi and most agricultural crop families can support crop productivity and soil health. Recent research shows that these benefits partly depend upon interactions between the fungi and other soil microorganisms. However, biological complexity and methodological limitations have hindered researchers’ understanding of these interactions. Through interdisciplinary collaborations and analytical approaches that span molecular measurements and cellular imaging to field trials, Hestrin is investigating how mycorrhizal-microbial relationships facilitate soil nutrient cycling, organic matter formation and other processes that promote soil health.
Extreme weather events are compromising highly nutritious, localized food grown by Indigenous societies, which has led to detrimental health disparities for American Indians, including higher rates of diabetes, heart disease and obesity. Kotutwa Johnson aims to ensure biological variability in crops and increase access to nutritious food through partnerships with tribal communities. Kotutwa Johnson is examining water management practices that increase Indigenous food production, analyzing Indigenous foods’ nutritional value to integrate these foods into USDA and other food programs and developing safeguards to protect Indigenous groups data rights.
To maintain a competitive advantage, United States grain producers often focus on producing wheat with milling and baking qualities desirable in Asia and Latin America, the primary importers of U.S. wheat. However, weather extremes can destabilize wheat crops with these end-use qualities. Krause is supplementing end-use datasets assembled by the USDA by linking measurements of wheat milling and baking quality to weather and crop management data. Krause aims to determine which weather and crop management factors most affect wheat quality, whether end-use quality can be forecasted and what options might be available to producers to improve wheat quality.
Current food packaging still relies on non-biodegradable plastics, which persist in the environment for a long time and can harm wildlife. Meng's research aims to design and fabricate high-performance packaging materials with sustainable, biodegradable biopolymers derived from renewable sources like food and agriculture waste and byproducts. Meng is using advanced technologies like computational modeling and artificial intelligence to guide the hypothesis-driven, bottom-up—linking molecular structure to materials' overall performance—design and fabrication processes.
Using food waste-derived fertilizer in controlled environment agriculture can address urban food system challenges. Yet, limited information is available about fertilizer characteristics and application methodologies. Park is examining the nutrient content of food waste-derived fertilizer, determining procedures to increase its nutrient balance and evaluating the impact of its use with indoor and greenhouse production systems.
Establishing food security post-disaster is critically important, yet marginalized or vulnerable communities – especially island communities – are less likely to be prioritized in these scenarios. Subhashni is analyzing how the COVID pandemic disruptions affected food supply chains in communities in Hawaii and Fiji and the role the presence of traditional and ancestral food systems may have played in shoring up food security. By understanding the role of Indigenous and ancestral food pathways in maintaining food security during a crisis, Subhashni is developing plans to restore traditional and Indigenous food pathways into the food systems.
Organic carbon – decaying biological material – greatly benefits soil health and functions such as crop productivity, limiting erosion and sequestering carbon dioxide. Due to an incomplete understanding of soil organic carbon, efforts to increase its levels are not always successful. Shabtai is evaluating the interactions of calcium inputs, currently studied for sequestering inorganic carbon, on soil organic carbon. The project is examining how these inputs affect soil organic carbon and soil health and whether they change soils’ microbial community.
Currently, agriculture decision support tools for water management are unsuitable for weather-resilient agriculture because they mostly serve the single purpose of increasing crop productivity. Calabrese’s research is developing water management strategies that not only optimize crop productivity, but also increase carbon sequestration, reduce atmospheric emissions and promote soil health and resilience.
Alternative sustainable protein supply chains not reliant on traditional agriculture are needed for future food security. Grossmann’s research is studying high-protein bacteria that use hydrogen as an energy source, which can be produced sustainably and using less land than traditional agriculture.
Increased agricultural trade, human movement, rapid pathogen evolution and changing weather patterns make many of the tactics used to combat pathogens impossible to implement. Huerta’s research is developing an ecological community-level understanding of how plant pathogenic bacteria survive and compete in agricultural microbiomes and aims to develop new management and diagnostic tools and host/microbiome interaction models.
Weather changes, losses in biological variability and food insecurity are three of the most pressing challenges facing humanity. To address these, agroecology stresses the importance of protecting natural ecosystems and food sovereignty in our food system. Jiménez-Soto’s research uses interdisciplinary, multiregional, and community-based approaches to examine the impacts of environmental change on biological variability and human livelihoods, and the relationship between biological variability and ecosystem services in rural and urban agricultural landscapes.
Monitoring soil properties is an effective way to decrease resource consumption while maintaining crop yields. However, most farms do not use sensor data to guide soil inputs and irrigation, primarily because traditional sensor networks are costly and require significant labor to install and maintain. Josephson’s research is creating a new technique for agricultural soil sensing that pairs wireless underground tags with an aboveground mobile reader.
While previous plant physiology research has advanced our understanding of how individual factors influence plant growth and development, there has not been enough focus on how these factors work as a whole. Meng’s research aims to improve the whole-plant photosynthesis and nutritional quality of indoor crops by understanding and optimizing the interactions among key environmental factors such as light, air temperature, humidity and carbon dioxide and root-zone factors, such as fertilization, for each growth phase.
The impacts of changing weather patterns on urban tree crops and production are largely unknown, posing a significant threat to urban farming efforts and their future resilience and sustainability. Ossola’s research is leveraging big data to create novel scientific evidence on the weather-related suitability and vulnerability of dozens of urban tree crop species across the U.S.
The beef industry faces pressure to reduce its environmental footprint but increasing sustainability presents a complex challenge. Rowan’s research leverages machine learning, high throughput phenotyping, and genomics to measure and predict sustainability-related traits like water use, forage intake, and methane emission. Additionally, the project will use genomic approaches to identify genes and genetic networks affecting sustainability traits.
Manure management poses profound challenges for modern agriculture, with effects spanning crop and livestock productivity, environmental quality and animal welfare. Spiegal’s research is developing a Manureshed Action Research Cycle to build regional and supply-chain resilience through systematic recycling of manure nutrients onto beef, dairy, poultry and swine feed crops. This research integrates social and biophysical science with stakeholder engagement to give animal producers, farmers and ranchers better capacity to connect with each other to redistribute manure nutrients from farms with manure surplus to fields and pastures that can use it sustainably.
Most bee breeding methods were developed almost a century ago and do not use genome-enabled breeding techniques. Harpur’s research program sets out to work directly with bee breeders to develop and evaluate genome-enabled breeding techniques while producing a large genomic database for honeybees across the country.
A promise of big data is the ability to better understand and predict relevant social-ecological phenomena. Modern machine learning and statistical analyses of big data, however, often fail to embed the human context needed to uncover and predict these phenomena more fully. In this project, Birgé reframes the challenge of predicting cover crop adoption on working farms as social-ecological, rather than strictly technical. To do this she is engaging farmers to create regressions trees—a type of decision-making algorithm—that describe individual farm-level decisions to adopt cover crops. These regression trees can then be tested using large, remotely sensed biophysical datasets. By eliciting farmer expert knowledge in this way, Birgé can improve the efficacy of big data to predict not only when and where cover crops are likely to be adopted on the landscape but also why.
Meeting future food needs requires effectively managing scarce groundwater. California is addressing this problem through the Sustainable Groundwater Management Act, which ensures better groundwater use and management. Bruno’s research is using the act as a case study to identify policies that enhance water sustainability and minimize regulation costs.
Soybeans are an important protein source and generate billions in economic growth in the United States. However, soybean yields lag behind other staple crops due to knowledge gaps concerning hybrid breeding—breeding between genetically distinct parent crops. Frank’s research focuses on increasing yields through a two-pronged approach. Frank’s team is using biotechnology to introduce a male-sterility/male rescue system that prevents soybean from self-pollinating, along with CRISPR gene editing to enhance soybean floral traits that will attract bees to outcross, or cross different breeds of soybeans. This hybrid breeding system has the potential to introduce genetic variability, potentially creating trillions of dollars in additional economic and agricultural growth.
Nitrogen fertilizer increases crop yields to meet growing food demands, but because less than 50 percent of applied nitrogen fertilizer is used by plants, the excess fertilizer can threaten environmental and human health. Legume crops can create their own nitrogen through root nodule symbiosis with certain microbes. While research efforts are underway to engineer popular cereal crops to form root nodules, there is not a strong effort to generate a compatible microbial partner for these crops. Geddes’ research is investigating root nodule symbiosis to develop microbes that can thrive in the cereal microbiome, initiate nodule formation and self-adapt for efficient nitrogen fixation and nutrient exchange with their host plant.
Beneficial microbes in a plant’s rhizosphere—the root-soil interface—increase plant growth and soil health, but not enough is known about how microbes, plants and soil interact and how to ensure microbes do not spread outside of the target soil, which could have unintended consequences. Kunjapur is examining whether a laboratory microbe can provide long-lasting pathogen resistance to crops, while also preventing the microbe’s growth, allowing it to be contained to a specific area. This project furthers development of targeted capabilities in crops to help them survive future stresses.
The transition from Indigenous food systems to industrialized farming with ultra-processed food continues to threaten native habitats and the health of Indigenous people. As efforts emerge to explore underutilized crops to meet nutritional needs and to sustain local ecosystems, fermentation has uncharted potential to unlock the possibility of Indigenous crops. Kuo is partnering with smallholder women farmers in Senegal to examine the nutritional and culinary benefits of fermenting Indigenous crops for developing healthy school meal items. This study can be extended to her collaboration with the Confederated Salish and Kootenai Tribes to innovate Native American fermented foods for supporting food sovereignty.
In the U.S., swine producers protect their herds from infectious diseases using biosecurity practices; however, the effectiveness of these practices varies greatly because there is insufficient information about which practices work best for different types of diseases and farms. There is also no central database of farms and their biosecurity plans. Machado is partnering with commercial pig producing companies, swine producers and local veterinary health officials to create a secure database of all swine farms in the country, their biosecurity plans and other potential risk factors for disease outbreaks. Using this information, Machado’s team can run computer simulations of outbreaks to test which biosecurity practices are most effective at containing infections and protecting farms. The team will combine secure databases and computer simulations into a user-friendly app to enhance biosecurity for farms and prepare for future outbreaks.
Salmon and trout farming provides high quality seafood that can meet the growing demand for protein. However, the fish farming industry struggles with fish escaping to breed in the wild and disease management challenges that restrict the industry’s growth. New genome-editing applications hold promise for improving aquaculture sustainability, yet the field is in its infancy. Phelps’ research is using advanced CRISPR gene editing to produce sterile rainbow trout and develop rapid disease diagnostic tests, which could address challenges the industry currently faces.
Plant roots are highly efficient at building soil organic matter, suggesting that increasing root growth in cropping systems can improve soil health. However, there are knowledge gaps that limit our ability to take full advantage of soil health benefits that roots could provide—for example, the contributions of living roots vs. decaying root litter to soil organic matter are unclear. Poffenbarger’s research is determining how living roots and decaying litter affect soil organic matter in low and high fertility soils and evaluating cover crops as a tool to capitalize on the benefits of roots in cropping systems.
Soil-borne diseases pose a significant threat to global food production, causing catastrophic yield and economic losses. Dundore-Arias’ research is determining the ecological and molecular mechanisms responsible for inducing and maintaining disease-suppressive soils. Dundore-Arias is using this information to develop microbial communities capable of enhancing soil health and plant productivity.
Oysters are a particularly sustainable source of animal protein, but the process of breeding oysters for desirable traits is still in its infancy. Hollenbeck’s research is enhancing selective breeding of oysters by developing new tools and strategies to address barriers to genomics-based breeding. Results of the research will help increase productivity and sustainability to benefit the oyster aquaculture industry in the U.S. and around the world.
Late-season bunch rots are fruit diseases that occur during maturation, after season-long expenses and labor, and directly affect yield and quality. Hu’s research is advancing knowledge about late-season bunch rots by studying the prevalence and ability of the pathogen to cause disease, the conditions and time in the growing cycle favorable to the pathogen and the pathogen’s reactions to fungicide. The research is developing sustainable management strategies that promote targeted and less frequent application of fungicide.
Urban agriculture offers many benefits for food production but often has higher production costs relative to traditional farming and is limited to only a few crops. Jinkerson’s research is engineering the size and nutritional value of a tomato plant variety to increase both the variety and value of crops that are grown in vertical controlled environment agriculture, making urban agriculture more profitable.
Plants face a wide variety of threats from pests and pathogens, yet for many such threats there is no simple genetic source of full resistance in the plant immune system. Mason’s research is determining the genetic control of induced chemical defenses, by which plants produce chemical compounds to protect themselves upon detecting pests or pathogens. Mason is also identifying sources of enhanced forms of this protection in a variety of species to reduce reliance on pesticides.
Soil compaction diminishes soil health and damages soil ecosystems, leading to lower crop yield and decreased resilience in the face of extreme weather events. Neely’s research is mitigating soil compaction by measuring and mapping compaction with a newly developed visible and near-infrared spectroscopy tool. Neely is linking these measurements to soil ecosystem components and using these findings to improve growers’ knowledge of soil compaction mitigation strategies.
Vitamin A deficiency is one of the most prevalent nutritional disorders worldwide and is the leading cause of preventable blindness in children under the age of five. Rhodes’ research is integrating plant breeding, cereal chemistry and nutrition to develop sorghum grain with high concentrations of carotenoid, plant chemicals that help combat vitamin A deficiency. This approach could be used as a model for biofortification efforts in a broad range of nutrients and crops.
Bovine respiratory disease causes annual losses of almost $1 billion dollars to the beef cattle industry. Verma’s research is producing a rapid biosensor diagnostic test that detects viruses that cause bovine respiratory disease. This test will guide veterinarians and cattle producers to the best methods for prevention and treatment of the disease.
Pests and pathogens destroy food crops, causing significant losses to farmers and threatening food security. The Pennsylvania State University research team is discovering mechanisms and management practices that manage interactions between cover crops, soil dynamics and beneficial organisms to increase crop resistance to pests and pathogens.
Diet is the leading cause of many chronic diseases and improving diet can reduce the incidence of disease. Dr. Jessica Copperstone is combining plant breeding and genetics, analytical chemistry, bioinformatics and nutrition to develop tomatoes that are more beneficial for human health.
Cattle infertility causes significant loss for cattle producers. Dr. Paul Dyce is improving the efficiency of cattle production by identifying molecular markers that indicate reproductive potential. These markers can uncover the underlying causes of unexplained infertility, leading to potential therapeutic options. This research ultimately helps producers select cattle with the best reproductive capabilities.
Plant pathogens can harm plants, reduce water quality and cause soil erosion. Dr. Andres Espindola Camacho uses cutting-edge, high-throughput sequencing to explain what affects plant health. Specially, this research sequences a plant’s microbiome, a collection of bacteria, viruses and fungi that live on a plant, to determine how these organisms positively or negatively impact the plant.
Agriculture accounts for about 38 percent of the nation’s freshwater withdrawals. Excessive water use results in over irrigation which can damage crops and soil. Dr. Landon Marston’s research investigates complex human-water systems to providing solutions for sustainable water resources management. His work explores how water is used throughout the food production enterprise to reduce water use within the global food system.
Crops with high water demands and overuse of water supplies, lead to water scarcity. Dr. Nathan Mueller is investigating the reliance of irrigated crop production on snowmelt water resources globally. The project heightens our understanding of snowmelt-dependent agriculture hotspots and how trends in water supplies and crop water demands influence water scarcity.
Traditional disease management strategies often fail to prevent recurring outbreaks. Dr. Neha Potnis’s research is testing a two-pronged approach to transform disease management strategies and identify control approaches that are practical and profitable.
Dr. Whitehead’s research is developing new ecologically based management practices for apples that can boost the content of health-promoting phytochemicals in fruit. If successful, these technologies could be applied to a variety of crops to improve the quality of food and boost the nutritional benefits of fruits and vegetables.
Tribal Nations limited access to soil and water management programs available to other U.S. producers. These communities also have the highest incidence of diet-related diseases. Dr. Ashworth is providing soil information to improve agricultural productivity on Tribal Lands. This project leverages an innovative digital soil mapping process to provide first-ever soil maps and interpretations on Native lands to promote water and nutrient-smart agriculture.
Locusts devastate agriculture globally, especially in subsistence farming communities. Locust outbreaks are unpredictable; however, sustainable land use can keep locusts at bay. Dr. Arianne Cease explores connections between land-use practices and locust outbreaks, while identifying and addressing barriers to sustainable locust management.
Listeria monocytogenes is a harmful pathogen that can cause severe illness. Dr. Tu-Anh Huynh is examining the interactions of L. monocytogenes with cattle gastrointestinal tract microbiota. Although clinical listeriosis is rare, L. monocytogenes is frequently shed by dairy cattle, reflecting a high prevalence of infection.
Timely insect pest management is critical for quality tree fruit and wine grape production. However, consumers are increasingly alarmed by synthetic pesticide, which leave residues on produce and contaminate the environment. Dr. Lav Khot is evaluating alternative pest management technologies that aid conventional and organic growers in reducing their reliance on broad spectrum pesticides.
Diet effects gut microbiota, which can provide beneficial or detrimental effects in human and animal health. Dr. Manuel Kleiner is linking dietary components to the microbes in intestinal tracts of humans and animals to design diets that foster health-promoting microbes and deprive disease-causing microbes of their food source.
Global food loss and waste is a growing threat to food security. Dr. Amit Morey is reducing food waste in the food supply chain by developing “Functional Ice” for storage and transportation of raw poultry and seafood.
Plant genome editing can increase agricultural productivity and help agriculture adapt to weather changes. Dr. Yiping Qi is developing CRISPR-Cas12a based plant genome editing systems with broadened targeting range and improved editing activity and specificity. If successful, these tools could accelerate plant breeding for generating high-productivity crops with stress resistance to extreme weather events.
Agricultural production is not advancing fast enough to meet projected demands for food. Agricultural innovations and beneficial microorganisms, can increase crop growth, boost stress resistance and prevent diseases. Scientists and farmers must first understand how microorganisms work. Dr. Jason Wallace is studying how crops are affected by the microbes that live inside them and how the environment impacts this relationship.
Concerns about water scarcity are mounting due to rapid urban growth, depleting groundwater supplies and water shortages from weather trends. Dr. Matt Yost assesses the combined effectiveness of several methods of water optimization in agriculture, including more efficient water application and management and advanced crop genetics.
Inefficient water use causes about 70 percent of Midwest crop losses. Crop models optimize water use; however, today’s models do not account for groundwater. This important source of water reduces the need for irrigation in dry years and enhances nitrogen and yield loss in wet years. Dr. Sotirios Archontoulis is developing models that predict impacts and designing mitigation strategies that improve water quality, soil health and productivity.
Standard soil testing can assess fertility in some fields but may fail in others. Soil organic matter, a pivotal component of a healthy and functioning soil, is often neglected in fertility recommendations. Dr. Steve Culman is investigating three promising tests of soil active organic matter to provide insight into nutrient cycling and nutrient supply to crops. This project will alleviate obstacles that limit widespread soil health testing.
The microbiome in human guts and diets, are linked to diet-related diseases. Yet, researchers lack knowledge on how specific foods effect microbiome and how diet and the microbiome are related to disease treatment and prevention. Dr. Hannah Holscher is researching how foods impacts health. The project will help consumers to make healthful food choices.
Global commerce has introduced exotic plant pathogens and pests to new areas. Farmers need a reliable system to detect newly introduced pests and pathogens. Dr. Jonas King is combining existing technologies with novel data analysis to detect diverse plant pathogens and insects of importance in row crop, orchard and forestry settings. This research will ultimately protect agricultural systems.
Genome editing revolutionizes our ability to modify living systems and meet the growing demand for food. However, genetic engineering of mature plants remains a challenge. Dr. Markita Landry is optimizing crop engineering and nutrient delivery tools to produce sustainable and high-yielding crops.
Candidatus Liberibacter spp. is a fastidious pathogen, bacteria that only grow in specific conditions, that causes the potato zebra chip and citrus greening diseases. These pathogens do not grow in a laboratory, making them difficult to study. Dr. Kranthi Mandadi is testing a screening method for disease resistance genes and chemicals to combat the pathogens causing these diseases. The research will translate into disease management strategies that prevent crop and economic losses.
Agriculture relies on fertilizer to maximize crop yield. However, up to 70 percent of applied nitrogen in fertilizer is not absorbed by plants, causing extensive air and water pollution. Researchers have limited information about the nitrogen process in plants at the molecular level. Dr. Diwakar Shukla is developing new approaches to understand the plant nitrogen uptake process and prevent pollution.
New approaches are necessary to prevent diet-related illnesses such as heart disease and diabetes. Dr. Maya Vadiveloo analyzes whether individually targeted incentives increase the adoption of healthier food patterns to cost-effectively improve health. This research uses an individual’s past food choices to inform the targeted food incentives, which ultimately improves food quality purchases.
When consumers make food choices, they choose between nutritional content and more immediate attributes, such as taste and convenience. Dr. Geoffrey Fisher promotes healthier food choices by highlighting certain attributes of food selections through laboratory and field experiments.
Soil health management practices increase food production and decrease agriculture’s environmental footprint. However, existing research overlooks the role plants play in using soil health to increase yields. Dr. Amelie Gaudin is transforming soil health into yield by exploring the relationship between root systems, soil health and crop productivity. This research identifies how producers can grow resilient crops using sustainable practices at scale.
Plant root diseases can cause lower yields. Some plant varieties are resistant to root disease, but the mechanisms underlying resistance are unclear. Dr. Anjali Iyer-Pascuzzi is examining how roots mediate disease-resistance by using tomato and a soilborne bacterial pathogen as a model.
Urban agriculture is a growing component of food systems. However, few studies focus on factors limiting crop productivity in urban environments and little is known about how insect pollinators and pests affect urban farms. Dr. Mary Jamieson investigates the composition of insect communities, while evaluating strategies for enhancing ecosystem services. This research improves crop pollination, pest control and yields in urban agriculture.
Projected increases in demand for food, feed and fiber will require more water. Semi-arid environments already face challenges in maintaining agricultural productivity under declining water supplies and changing weather patterns will exacerbate this challenge. Dr. Isaya Kisekka is improving water productivity in agriculture by integrating data related to agricultural water use by several sources such as soils, weather and plant-based measurements.
Precision feeding allows pork producers to meet pigs’ nutrient requirements, while minimizing nutrient excretion and environmental risk. Reproductive sows represent an opportunity increase efficiency and reduce environmental costs. Dr. Crystal Levesque is assessing precision feeding formulations for pregnant sows to optimize reproductive performance and reduce environmental impacts.
To enhance fish production and breeding, North Carolina State University researcher, Dr. Benjamin Reading is using artificial intelligence to determine the genetic factors responsible heterosis, or instances of offspring performing better than their parents, in hybrid striped bass.
The interactions between food and health are complicated and there is limited research on genes and dietary nutrients essential to human health. Dr. Mary Anne Roshni Amalaradjou researchers the effect of dairy foods on gut health. This research is the first in-depth study of the effect of dairy consumption on multiple levels of human physiology.
Farmers rotate crops to increase crop productivity, yet there is lack of information on how rotational differences impact soil microorganisms. Michigan State University researcher, Dr. Lisa Tiemann studies the interactions between crop varieties, soil microorganisms and soil organic matter. This research helps build soil health through rotational practices and soil microorganisms.
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