Project Grant 2336557
- This Project Grant award from the National Science Foundation (NSF) under the Biological Sciences (CFDA 47.074) program provides $1,035,238 to the University of Utah to study the mechanisms by which Pseudomonas plant pathogens use specialized molecular "killing machines" called tailocins to target and eliminate competing bacteria without harming their own strain. The research aims to elucidate how differences in the lipopolysaccharide composition of bacterial cell membranes confer...
- This $836,100 federal Project Grant award from the National Science Foundation's Integrative Activities program (CFDA 47.083) aims to enhance understanding of the genetic mechanisms underlying the bacterial wilt disease that affects cucurbit crops like cucumbers and melons. The key objectives are to screen and characterize disease resistance traits in diverse cucumber and melon populations, and leverage this knowledge to develop sustainable management strategies for this critical agricultural...
- Federal Grant Award Summary Texas A&M Agrilife Research received a $1,145,609 Project Grant award dated September 15, 2025, from the National Science Foundation's Division of Emerging Frontiers under the Biological Sciences program (CFDA 47.074) to investigate the mechanisms of nucleotide-binding leucine-rich repeat (NLR)-mediated plant immunity. The research focuses on the potato NLR protein RB, which confers broad-spectrum resistance against Phytophthora infestans, the pathogen responsible...
- This $344,201 National Science Foundation project grant supports research into seed-fungal interactions and their influence on tropical tree recruitment. Specifically, the Utah State University-led collaborative effort will examine how seed chemistry impacts susceptibility to fungal infection and pathogenicity. It will also explore how the physical environment and maternal genotype influence fungal community composition and host susceptibility across landscape scales in Panama. Combining...
- This National Science Foundation Project Grant of $989,996 awarded on March 15, 2022 will fund research into novel redox-sensitive bZIP transcription factors in the oomycete plant pathogen Phytophthora infestans through February 28, 2025. The grant was awarded under the Biological Sciences program (CFDA 47.074) to investigate how these transcription factors perceive and respond to reactive oxygen species to regulate gene expression and protect cells from oxidative damage. The research will...
- This $1,000,000 project grant awarded by the National Science Foundation (NSF) Biological Sciences program (CFDA 47.074) aims to advance understanding of the ecological and evolutionary processes impacting non-hemipteran-vectored bacterial plant pathogens. The project will use the bacterial wilt pathogen Erwinia tracheiphila, its cucumber beetle vectors, and virulent bacteriophages as a model system. Key objectives include evaluating the impact of vector-plant and plant-vector transmission on...
- This $275,000 Project Grant awarded by the National Science Foundation (NSF) under the CFDA program titled "NSF Technology, Innovation, and Partnerships" aims to develop a targeted biological pesticide for controlling Pythium pathogens in hydroponic greenhouse production of leafy greens. The project will assemble a collection of diverse Pythium pathogen isolates, evaluate 10 Pseudomonad biocontrol strains, and identify the genetic basis for their host-specific killing ability to...
- Merrimack College received a CAREER (Collaborative Research) award of $533,591 from the National Science Foundation's Division of Integrative Organismal Systems under the Biological Sciences program (CFDA 47.074), effective October 1, 2025, through June 30, 2027. This project grant, funded in part through the American Rescue Plan Act of 2021, supports fundamental research investigating the molecular regulation of septin-mediated plant invasion by Magnaporthe oryzae, the fungus responsible for...
- This $506,900 project grant from the National Science Foundation's Biological Sciences program (CFDA 47.074) supports research at the University of California, Davis to understand the molecular mechanisms of plant immune response to herbivore-associated peptide elicitors. The three-year award beginning June 1, 2022 will leverage a newly discovered pattern recognition receptor in common beans, INR, to quantify its contribution to overall herbivore defense against caterpillars. Researchers will...
- This three-year $1,404,082 National Science Foundation Project Grant under the Biological Sciences program (CFDA 47.074) supports collaborative research at the University of Washington to understand the molecular mechanisms of plant immune responses to herbivore-associated elicitors. The research will leverage a newly discovered pattern recognition receptor in common beans, INR, which detects inceptin found in caterpillar oral secretions. The project will quantify INR's contribution to herbivore...
CAREER: IGNITE INTEGRATING THE NEXT GENERATION INTO NOVEL INVESTIGATIONS OF TOXIN ECOLOGY AND EVOLUTION -THE IGNITE CAREER PROJECT WILL SHED LIGHT ON A FUNDAMENTAL QUESTION IN BIOLOGY: HOW DOES MICROBIAL WARFARE LEAD TO ECOLOGICAL SUCCESS OF PATHOGENS? IMPORTANTLY, THIS PROJECT DEVELOPS FOUNDATIONAL KNOWLEDGE IN ECONOMICALLY IMPORTANT PLANT PATHOGENS. THESE PLANT PATHOGENS CAUSE DEVASTATING EPIDEMICS OF WILT DISEASE ON CROPS THAT ARE MAJOR COMPONENTS OF THE AMERICAN DIET, INCLUDING POTATO, TOMATO, BANANA, AND PEANUT. THESE WILT PATHOGENS ARE MORE THAN JUST THREATS TO FOOD SECURITY; THEY ARE COMPLEX ORGANISMS WITH EXTENSIVE WARFARE STRATEGIES. TO PIONEER UNDERSTANDING THEIR INTRICATE WARFARE MECHANISMS, THIS PROJECT LEVERAGES INNOVATIVE COMPUTATIONAL ANALYSES AND SYNTHETIC BIOLOGY METHODOLOGIES TO STUDY THEIR ?WEAPONS??TOXINS?AT EVERY LEVEL, FROM THE SMALLEST MOLECULE TO THEIR IMPACT ON ENTIRE ECOSYSTEMS. THE IGNITE PROJECT HAS SIGNIFICANT SOCIETAL BENEFITS?IT ESTABLISHES A CUTTING-EDGE STEM EDUCATIONAL PROGRAM, THE IGNITE CURE, THAT PROVIDES HANDS-ON RESEARCH EXPERIENCE TO UNDERGRADUATE STUDENTS, WITH AN EMPHASIS ON COMMUNITY COLLEGE TRANSFER STUDENTS AND ADDITIONAL GROUPS THAT ARE HISTORICALLY UNDERREPRESENTED IN STEM PROFESSIONS. THIS INITIATIVE WILL PREPARE THE NEXT GENERATION OF SCIENTISTS, EQUIPPING THEM WITH THE TECHNICAL AND ESSENTIAL SOFT SKILLS THAT WILL EMPOWER THEM TO TACKLE EMERGING PLANT HEALTH AND PUBLIC HEALTH CHALLENGES. STUDENTS WILL GAIN CRITICAL THINKING SKILLS AND GAIN CONFIDENCE IN ANALYZING BIG-DATA (POPULATION GENOMIC DATA RELEVANT TO PLANT EPIDEMICS). MOREOVER, THE DATA FROM THE CURE WILL BE OPENLY AND RAPIDLY SHARED ON THE NATIONAL GENOMIC DATABASE, NCBI, BENEFITTING NATIONAL AND INTERNATIONAL SURVEILLANCE PROGRAMS TO PREDICT AND MITIGATE EMERGING PLANT PATHOGENS. OVERALL, THE IGNITE CAREER PROJECT PROMOTES TWO MAJOR DOMESTIC INTERESTS: FOOD SECURITY AND THE EDUCATION OF EMERGING SCIENTISTS. THE CENTRAL HYPOTHESIS OF THIS PROJECT IS THAT THE MOLECULAR MECHANISMS AND EVOLUTION OF TYPE 6 SECRETION SYSTEM (T6SS) TOXINS AND IMMUNITY PROTEINS DRIVES THE ABILITY OF PHYTOPATHOGENIC RALSTONIA TO ANTAGONISTICALLY COMPETE AGAINST OTHER PLANT-COLONIZING BACTERIA. TO UNDERSTAND T6SS TOXINS ACROSS BIOLOGICAL SCALES, THE PROJECT HAS THREE AIMS: (1) EXPLORE THE EVOLUTION OF RALSTONIA T6SS GENES, (2) CHARACTERIZE THE MOLECULAR AND CELLULAR IMPACTS OF RALSTONIA TOXINS AND IMMUNITY PROTEINS, AND (3) TEST THE ECOLOGICAL ROLE OF THE RALSTONIA T6SS IN INTER-BACTERIAL COMPETITION. THE PROJECT WILL GENERATE AND LEVERAGE NEW PUBLIC SEQUENCE DATA TO SHED LIGHT INTO THE EVOLUTIONARY PROCESSES THAT SHAPE PHYTOPATHOGEN DIVERSITY AT THE POPULATION AND MOLECULAR SCALES. THROUGH CYTOLOGICAL PROFILING AND FORWARD GENETIC SCREENS (RANDOM-BARCODED TRANSPOSON MUTANT SEQUENCING, RB-TNSEQ), THE RESEARCHERS WILL CONNECT THE EVOLUTIONARY DIVERSITY OF TOXIN/IMMUNITY PAIRS TO THEIR PHENOTYPIC IMPACTS ON BACTERIAL CELLS. WITH A CUTTING-EDGE BARCODED BACTERIAL MUTAGENESIS APPROACHES, THEY WILL QUANTIFY THE IN PLANTA ANTAGONISM BETWEEN BACTERIA WITH DIVERSE REPERTOIRES OF TOXIN/IMMUNITY PAIRS. BY COMBINING EXPERIMENTAL AND DISCOVERY-DRIVEN DATA FROM SINGLE CELLS TO LANDSCAPES, THEY HAVE DEVELOPED A SET OF AIMS THAT WILL NOT ONLY ALLOW THEM TO UNDERSTAND HOW PATHOGEN GENOTYPES LEAD TO SUCCESS IN AN ENVIRONMENT BUT ALSO HOW COMPETITION AND SUCCESSIONAL DYNAMICS MODULATE CORE EVOLUTIONARY CONCEPTS LIKE ?SURVIVAL OF THE FITTEST.? THIS AWARD REFLECTS NSF'S STATUTORY MISSION AND HAS BEEN DEEMED WORTHY OF SUPPORT THROUGH EVALUATION USING THE FOUNDATION'S INTELLECTUAL MERIT AND BROADER IMPACTS REVIEW CRITERIA.- SUBAWARDS ARE NOT PLANNED FOR THIS AWARD.
Mod # | Description | ReasonForModification | Federal Obligation | Date |
|---|---|---|---|---|
| Not listed | $50.0k | 7/22/25 | ||
| Not listed | $0 | 7/9/25 | ||
| Not listed | $300.0k | 7/9/25 | ||
| Not listed | $300.0k | 7/12/24 |