This Project Grant award of $1,447,376.00, provided by the National Institute of Allergy and Infectious Diseases (NIAID) under the Allergy and Infectious Diseases Research program (CFDA 93.855), will fund a comprehensive investigation into the dynamics of viruses in wild bat populations. The primary objectives are to: Examine how virus shedding dynamics in bat populations and bat use of anthropogenic structures shape virus exposure risk for humans and domestic animals. Identify local- and...
The National Institute of Allergy and Infectious Diseases (NIAID) awarded a $123,356 Project Grant under the Allergy and Infectious Diseases Research program (CFDA 93.855) to the University of California, Davis (UC Davis) to characterize the longitudinal dynamics and ecological drivers of coronavirus cross-species transmission in bat populations. The key products and services to be delivered under this grant include: 1) assessing the likelihood of coronavirus cross-species transmission in bats...
This five-year, $2.94 million Project Grant from the National Science Foundation's Biological Sciences program (CFDA 47.074) supports research at Cornell University to understand the mechanisms by which land use change triggers zoonotic pathogen spillover from wildlife to humans. The grant funds an interdisciplinary team to apply convergent biological, computational, and social science approaches to identify the "rules of emergence" driving land use-induced spillover of bat-borne...
This Project Grant award from the National Institute of General Medical Sciences (NIGMS) Biomedical Research and Research Training Program (CFDA 93.859) provides $392,500 in funding to Arizona State University (ASU) to conduct research aimed at identifying predictive rules for cross-species viral transmission from wild mammals to humans. Over the 5-year project period from January 1, 2025 to December 31, 2029, the research will focus on three key areas: 1) developing automated tools to curate...
This $814,512 National Science Foundation award under the Biological Sciences (47.074) program will fund collaborative research on integrated mechanisms of environment-host-virome interactions in Egyptian fruit bats. The University of California, Davis will lead the project to study how factors like food access, animal health, and immune responses influence viral infection levels in bat populations experiencing variable human exposure. Researchers will use integrative approaches to illuminate...
This three-year, $240,000 project grant from the National Science Foundation will support genomic research and public education on wildlife viral emergence in Cambodia. Funded under the Biological Sciences program (CFDA 47.074), the award will enable a postdoctoral fellow to conduct metagenomic surveillance of rodents, mosquitoes, and the environment to detect known and novel viruses. Sequence data will be analyzed alongside climate and landscape data to model zoonotic spillover risk. The fellow...
This Project Grant award from the National Institute of Allergy and Infectious Diseases (NIAID), under the Allergy and Infectious Diseases Research program (CFDA 93.855), will support research to evaluate the potential for zoonotic transmission and human infection by two simian immunodeficiency virus (SIV) strains - SIVRCM from red-capped mangabeys and SIVMND2 from mandrills. The $169,880 award, granted from August 1, 2024 through June 30, 2026, will utilize a humanized mouse model to...
The University of South Florida received a $2,995,370 five-year Project Grant from the U.S. Department of Agriculture's Agriculture and Food Research Initiative (CFDA 10.310) to study the future dynamics of SARS-CoV-2 in animal communities. The project aims to advance predictive modeling for future zoonotic variants, identify mammalian host species, and build a framework to understand transmission patterns in wildlife populations. Key efforts include developing AI-driven predictions, empirically...
This National Science Foundation project grant of $739,197 supports collaborative research on environment-host-virome interactions among Egyptian fruit bat populations from August 2022 to July 2025. Funded under the Biological Sciences program (CFDA 47.074), the award aims to examine how factors like food access, health, and immune responses influence viral burdens in bat colonies experiencing variable human exposure. Researchers will assess relationships between landscape resources,...
This $1.78 million project grant from the National Science Foundation's Division of Environmental Biology will fund research at the University of Wisconsin-Madison to develop strategies to mitigate white-nose syndrome (WNS), a lethal fungal disease decimating North American bat populations. Over three years, the university will interrogate how the fungal pathogen Pseudogymnoascus destructans (Pd) initiates infection by adhering to bat skin, using a first-of-its-kind keratinocyte cell line from...
ANALYZING THE POTENTIAL FOR FUTURE BAT CORONAVIRUS EMERGENCE IN MYANMAR, LAOS, AND VIETNAM - 1 TWO MAJOR CORONAVIRAL DISEASES OF WILDLIFE ORIGIN HAVE EMERGED IN ASIA IN THE LAST TWO DECADES. BOTH LIKELY 2 BEGAN AS ZOONOTIC SPILLOVER EVENTS, LEADING TO SMALL CASE CLUSTERS, BUT WERE NOT IDENTIFIED UNTIL SIGNIFICANT 3 COMMUNITY SPREAD MADE CONTROL DIFFICULT, AND IN THE CASE OF COVID-19, LED TO A PANDEMIC. OUR PRIOR WORK AND 4 PRELIMINARY DATA SHOW THAT SOUTHEAST ASIA HAS A HIGH DIVERSITY OF WILDLIFE CORONAVIRUSES (COVS), A LARGE 5 PROPORTION OF THE POPULATION WITH FREQUENT OCCUPATIONAL AND ENVIRONMENTAL EXPOSURE TO WILDLIFE, AND LIMITED 6 SURVEILLANCE AT RURAL SITES WHERE OUTBREAKS LIKELY BEGIN. OUR HOTSPOTS RISK MAPPING SUGGESTS COUNTRIES DIRECTLY 7 TO THE SOUTH OF CHINA; MYANMAR, LAOS AND VIETNAM IN PARTICULAR; CONTAIN REGIONS WITH HUMAN-WILDLIFE INTERFACES 8 AND LIKELY REGULAR SPILLOVER OF NOVEL COVS FROM BATS AND OTHER WILDLIFE. OUR PRELIMINARY FIELD STUDIES HAVE 9 IDENTIFIED NOVEL VIRUSES RELATED TO KNOWN ZOONOSES IN BATS AND OTHER WILDLIFE FROM EACH OF THESE COUNTRIES AND 10 COMMUNITIES WITH SEROLOGICAL EVIDENCE OF NOVEL COV EXPOSURE. THE OVERARCHING GOAL OF OUR WORK IS TO ANALYZE 11 THE BEHAVIORAL AND ENVIRONMENTAL RISK FACTORS FOR SPILLOVER OF NOVEL COVS, IDENTIFY WILDLIFE-TO-HUMAN SPILLOVER 12 EVENTS, ASSESS THE RISK AND DRIVERS OF COMMUNITY TRANSMISSION AND SPREAD, AND TEST POTENTIAL PUBLIC HEALTH 13 INTERVENTIONS TO DISRUPT SPILLOVER AND SPREAD. TO ACHIEVE THIS, WE PROPOSE THE FOLLOWING: 14 SPECIFIC AIM 1) COMMUNITY-BASED SURVEYS AND BIOLOGICAL SAMPLING OF PEOPLE FREQUENTLY EXPOSED TO WILDLIFE IN 15 MYANMAR, LAOS, AND VIETNAM, TO FIND SEROLOGICAL EVIDENCE OF SPILLOVER AND ASSESS BEHAVIORAL, SOCIAL STRUCTURE, 16 SPATIAL CONNECTIVITY AND MOBILITY FACTORS THAT LEAD TO EXPOSURE, SPILLOVER, AND SPREAD; 17 SPECIFIC AIM 2) SAMPLING AND PCR SCREENING OF BATS AND OTHER WILDLIFE AT COMMUNITY SURVEILLANCE SITES TO 18 IDENTIFY VIRUSES AND HOSTS RELATED TO THE HUMAN INFECTIONS DETECTED IN AIM 1; FULL GENOME SEQUENCING AND CELL 19 ENTRY ASSAYS TO ASSESS ABILITY TO INFECT HUMAN CELLS; MACHINE LEARNING APPROACHES TO ESTIMATE ZOONOTIC 20 POTENTIAL OF EACH NOVEL COV; 21 SPECIFIC AIM 3) SYNDROMIC PCR-BASED SURVEILLANCE IN CLINICS TO IDENTIFY 'CRYPTIC' CASES OR CASE CLUSTERS CAUSED 22 BY BAT-COVS; CONTACT TRACING TO ASSESS WHETHER CASES REPRESENT INITIAL SPILLOVER OR COMMUNITY SPREAD EVENTS. 23 OUR RESULTS WILL PROVIDE DETAILED INFORMATION ON THE RISK OF FUTURE COV SPILLOVER AND SPREAD AND WILL INFORM 24 POTENTIAL PUBLIC HEALTH INTERVENTIONS TO REDUCE SPILLOVER RISK AND OUTBREAK POTENTIAL. THEY MAY ALSO PROVIDE DATA 25 ON WILDLIFE RESERVOIRS AND COMMUNITY SPILLOVER EVENTS OF RELEVANCE TO THE ORIGIN OF COVID-19. FINALLY, WE WILL 26 RAPIDLY SUPPLY VIRAL SEQUENCES AND ISOLATES FOR USE IN VACCINE AND THERAPEUTIC DEVELOPMENT, INCLUDING 27 "PROTOTYPE PATHOGEN" VACCINES, VIA AN EXISTING MOU WITH THE NIAID-CREID NETWORK. OUR LONG-TERM GOAL IS THAT 28 THIS WORK WILL ACT AS A MODEL TO BUILD PANDEMIC PREPAREDNESS STRATEGIES TO BETTER PREDICT SITES AND COMMUNITIES 29 WHERE WILDLIFE-ORIGIN VIRUSES ARE LIKELY TO EMERGE, AND TO DISRUPT EMERGENCE IN EID HOTSPOTS AROUND THE WORLD. 30