Project Grant 2419465
- 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 Project Grant award, totaling $955,781.00 and funded by the National Science Foundation (NSF) Biological Sciences program (CFDA 47.074), supports research to unravel the diversity, evolution, and origin of novel secondary metabolism in commensal microscopic filamentous fungi. The project will: (1) reconstruct relationships among Basidiobolus fungal species; (2) explore how secondary metabolite genes vary across these species and test if some were acquired from bacteria through horizontal...
- This three-year, $240,000 project grant from the National Science Foundation's Division of Biological Infrastructure will fund research and outreach activities under the Biological Sciences program (CFDA 47.074). The fellow will conduct a comprehensive survey of bacterial and viral communities in a parasitic plant system to identify horizontal gene transfer events. Microbial interaction networks will be analyzed to understand patterns of gene sharing. Workshops and activities will be developed...
- This $1,083,670 Project Grant award from the National Science Foundation's Biological Sciences (CFDA 47.074) program will fund research on the spatiotemporal dynamics of plant-mycorrhizal fungal symbioses across the eastern United States. The primary awardee, the University of Tennessee, will investigate how changing global conditions impact the interactions between plants and mycorrhizal fungi, which provide critical nutrient and water exchange. The research will examine spatial and temporal...
- This Project Grant award of $769,792 from the National Science Foundation's (NSF) Biological Sciences (CFDA 47.074) Federal Grant Program supports research to clarify the mechanisms of pathogen effector secretion in host plant cells. The project aims to better understand how fungal and oomycete pathogens, including the rice-destroying Magnaporthe oryzae, suppress host plant defenses by deploying secreted proteins (effectors) during early infection. The research seeks to identify pathogen...
- The National Science Foundation (NSF) awarded a $1,051,699 Project Grant under the Biological Sciences program (CFDA 47.074) to Yale University. The three-year grant, effective August 1, 2023, aims to study the genetic and environmental interactions governing mycoparasitism, the phenomenon where certain fungi attack and parasitize other fungal species. The research will focus on the dynamics of the rhizosphere fungal community, including mycorrhizal fungi that have a symbiotic relationship...
- This National Science Foundation (NSF) Biological Sciences (CFDA 47.074) federal Project Grant award of $300,000 provides funding for a research project titled "EAGER: MYSTERIOUS LACK OF INTRACELLULAR FUNGAL SYMBIONTS IN INSECTS" from July 15, 2025 to June 30, 2027. The project aims to investigate the reasons why fungal-insect partnerships are rare compared to more common bacterial-insect symbioses. The research will focus on the evolutionary relationships between deathwatch beetles...
- This $591,459 National Science Foundation project grant supports research investigating microbial predation as a driver of endosymbiosis and phagocyte evasion in soil microbes. Funded under the Biological Sciences program (CFDA 47.074), the research will be conducted by Oregon State University from April 2022 through March 2025. The project will examine bacterial-fungal partnerships across species to identify differences and commonalities in shared genomes that allow endosymbiosis. Researchers...
- This Project Grant award from the National Science Foundation's Biological Sciences (CFDA 47.074) program provides $371,044 to support research at James Madison University (JMU) on the evolutionary transitions between mutualism and parasitism in leafflower plants and moths. The project funds four master's students to study the genetics, diversity of associated bacteria, and biology of leafflower moths in Texas, the Southeastern U.S., and Puerto Rico. It also supports summer research...
- The National Science Foundation awarded a two-year, $138,000 Project Grant to study how arbuscular mycorrhizal fungi impacts pollination and plant fitness in anthropogenically disturbed environments. The grant, provided under the Biological Sciences program (CFDA 47.074), will fund research from August 2021 to July 2023 exploring how the symbiotic relationship between plants and fungi is impacted by human disturbances and influences plant reproduction. The Biological Sciences program aims to...
OSIB:MECHANISMS DETERMINING SPATIAL AND TEMPORAL DYNAMICS OF INFECTIOUS PROCESSES FOR MICROBOTRYUM COMPLEX PHYTOPATHOGENIC FUNGI AND HOST IMMUNITY -FUNGI ARE A LARGE AND DIVERSE GROUP OF ORGANISMS, ESTIMATED TO CONTAIN 2.2-3.8 MILLION SPECIES. ALTHOUGH THE VAST MAJORITY ARE NOT ASSOCIATED WITH DISEASE, ROUGHLY 300 FUNGAL SPECIES ARE KNOWN AS HUMAN PATHOGENS, AND AN EVEN GREATER NUMBER ARE PLANT PATHOGENS. IN BOTH CASES, SUCH PATHOGENS POSE MAJOR RISKS TO HUMAN HEALTH VIA MORBIDITY AND MORTALITY, AND POTENTIALLY DEVASTATING EFFECTS ON AGRICULTURE, INCLUDING BOTH LIVESTOCK AND CROPS. WHILE SEVERAL MODELS HAVE DEVELOPED FOR HUMAN FUNGAL PATHOGENS, IMPORTANT UNDERSTANDING OF THE FUNDAMENTAL BIOLOGY AND MECHANISMS OF PATHOGENESIS HAVE COME FROM PLANT PATHOGENIC MODELS, ESPECIALLY THE GROUP KNOWN AS ?SMUTS,? WHICH CAN SERVE AS A MODEL FOR STUDY OF 1) NERVE DEVELOPMENT; 2) DNA REPAIR MECHANISMS SIMILAR TO THOSE OF THE BRCA2 HUMAN GENE, STRONGLY ASSOCIATED WITH RISK FOR BREAST AND OVARIAN CANCERS (ABSENT FROM TRADITIONAL YEAST MODELS); 3) MITOCHONDRIAL DYSFUNCTION; AND 4) EVOLUTION OF DISEASE MECHANISMS, WITH POTENTIAL TO PREDICT EMERGING INFECTIOUS DISEASE VIA HOST SHIFTS. THIS LAST POINT IS THE FOCUS OF THE FUNDED RESEARCH PROJECT AND EXPLORES GENETIC DIFFERENCES IN PLANTS AND THEIR RESPONSES TO DIFFERENT FUNGAL PATHOGENS. THE WORK HAS BROAD IMPLICATIONS FOR SOCIETY, ESPECIALLY BY PROVIDING A BETTER UNDERSTANDING OF WHY SOME PLANTS ARE MORE SUSCEPTIBLE TO SEVERE INFECTIONS, WHILE OTHERS ARE BETTER ABLE TO FIGHT OFF THE SAME PATHOGENS WHILE DISPLAYING NO OR MILDER SYMPTOMS. MOREOVER, THIS PROJECT WILL EXPAND THE POOL OF TRAINED SCIENTISTS AT ALL LEVELS (UNDERGRADUATE, GRADUATE STUDENT, POSTDOCTORAL), THEREBY PROVIDING THE NEXT GENERATION(S) OF INDIVIDUALS PREPARED TO ADDRESS NEW THREATS TO HUMAN HEALTH AND AGRICULTURAL SECURITY. THE SMUT FUNGI ARE A LARGE, DIVERSE, AND NON-MONOPHYLETIC GROUP OF PLANT PATHOGENS. AMONG THESE ARE FUNGI WITH AGRICULTURAL IMPORTANCE, AND WHOSE PROMINENCE HAS EXPANDED DUE TO (1) THEIR FACILITY OF MANIPULATION AND EXTENSIVE MOLECULAR GENETIC TOOLKITS, OR (2) THEIR ECONOMIC AND INTERNATIONAL DIPLOMATIC IMPACTS. BY CONTRAST, THE MICROBOTRYUM VIOLACEUM COMPLEX OF FUNGAL PLANT PATHOGENS CONTINUES TO BE IMPORTANT IN ECOLOGICAL/POPULATION GENETICS/EVOLUTIONARY STUDIES AND, MORE RECENTLY, HAS BECOME A USEFUL MODEL OF EMERGING INFECTIOUS DISEASES THROUGH HOST SHIFTS. EACH FUNGAL SPECIES IN THIS COMPLEX OF ?ANTHER SMUTS? IS LIMITED TO SUCCESSFUL INFECTION OF ONE OR A LIMITED NUMBER OF HOST SPECIES IN THE CARYOPHYLLACEAE (PINKS). HOWEVER, SOME MICROBOTRYUM SPECIES (E.G., ON DIANTHUS HOSTS OR LYCHNIS HOSTS) ARE MORE ?GENERALISTS,? HAVING A BROADER RANGE OF HOST PLANT SPECIES. IN THIS PROJECT, COMPARISON IS MADE BETWEEN INFECTIONS OF HOST PLANTS BY SPECIALIST MICROBOTRYUM SPECIES ON PREFERRED VS. NON-HOSTS; SIMILAR COMPARISONS WILL BE MADE WITH GENERALIST MICROBOTRYUM INFECTIONS ON DIFFERENT HOST PLANTS AS WELL. DATA WILL BE COLLECTED THROUGHOUT THE LIFECYCLE OF THE FUNGUS/PLANT INTERACTION VIA MICROSCOPY (CONFOCAL FLUORESCENCE, SEM), PROTEOMICS OF FUNGAL/HOST PROTEIN COMPLEXES, TRANSCRIPTOMICS, AND ANALYSIS OF RNA EDITING OF FUNGAL TRANSCRIPTS. CASES OF BLOCKED INFECTION MAY SUGGEST A SWITCH TO ENODPHYTISM, PARTICULARLY WHEN PRESENCE OF THE FUNGUS HAS BEEN CONFIRMED IN STEM AND FLOWER BUD STAGES. IN SUCH CASES, CO-INFECTION OF PLANTS WITH BETTER-ADAPTED PATHOGENIC MICROBOTRYUM SPECIES AND ?ENDOPHYTIC? MICROBOTRYUM SPECIES IN THE SAME HOST WILL TEST WHETHER ANY PROTECTION TO THE HOST IS PROVIDED BY THE ENDOPHYTE. 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 | $300.0k | 5/8/25 | ||
| Not listed | $84.9k | 6/21/24 |