This $170,566 federal Project Grant award from the National Science Foundation (NSF) Division of Mathematical Sciences (CFDA 47.049 - Mathematical and Physical Sciences) supports the development and delivery of an innovative mathematical modeling framework to integrate public health policy, public opinion dynamics, and epidemic outcomes. The project aims to establish a detailed, integrated system that captures the complex feedback among public health policies, dynamic public opinions, and...
This $968,765 Project Grant awarded by the National Science Foundation's (NSF) Division of Mathematical Sciences (CFDA 47.049 - Mathematical and Physical Sciences) will develop a flexible modeling framework to simulate the impact of various testing-based infection control strategies for respiratory pathogens like SARS-CoV-2. The project aims to improve our ability to control existing respiratory diseases and enhance preparedness for future pandemics. Key deliverables include: Developing a...
This federal Project Grant award of $360,000 from the National Science Foundation's (NSF) Division of Mathematical Sciences and the CDC Coronavirus and Other Respiratory Viruses Division aims to improve policymaking processes for mitigating the transmission of respiratory pathogens, such as during the COVID-19 pandemic. The principal investigators will develop and study game theoretical mathematical models, simulation tools, and numerical approaches that can be adapted to specific public...
This $195,101 Project Grant, awarded by the National Science Foundation's (NSF) Biological Sciences program (CFDA 47.074), will use mathematical modeling to project the healthcare burden associated with COVID-19, influenza, and respiratory syncytial virus (RSV) in the United States during the 2023-2024 respiratory virus season. The research will integrate estimates of population immunity from prior infections, vaccinations, and monoclonal antibody therapy to produce four rounds of projections...
The National Science Foundation Division of Social and Economic Science awarded a $545,000 Project Grant to the National Bureau Of Economic Research Inc. doing business as Nber, for the project "THE CUTTER INCIDENT: CONSEQUENCES OF A PUBLIC HEALTH CRISIS" from September 1, 2021 to August 31, 2024. This Project Grant funding will support Nber's work examining the social, behavioral, and economic impacts of a public health crisis through the lens of the Cutter Incident, when the Salk...
This $2 million project grant from the National Science Foundation's Division of Computing and Communication Foundations supports the development of predictive modeling tools to aid pandemic prevention and response efforts. Funded under the Computer and Information Science and Engineering program, the 18-month award to Boston Children's Hospital will plan a future center-scale effort to address gaps in understanding and modeling pandemic potential, impact of interventions, and factors...
This $148,582 Project Grant award from the National Science Foundation's Office of International Science and Engineering (CFDA 47.079) supports the development of computational models and algorithms to analyze and forecast epidemiological trends during and after military conflicts. The project, titled "EAGER: IMPRESS-U: Modeling and Forecasting of Infection Spread in War and Post War Settings Using Epidemiological, Behavioral and Genomic Surveillance Data", is a collaborative effort...
This Project Grant award of $133,203 was provided by the National Science Foundation (NSF) through its Mathematical and Physical Sciences (CFDA 47.049) program. The award supports a collaborative research project among the University of Florida, University of Georgia, and University of Massachusetts Amherst to develop advanced mathematical models to improve understanding and management of schistosomiasis transmission dynamics, with a focus on the transition from high to low transmission phases...
This Project Grant award from the National Science Foundation's (NSF) Mathematical and Physical Sciences program (CFDA 47.049) aims to incorporate group-level behavioral responses into epidemic models. The award of $700,000 will support research to develop mathematical models and computational algorithms that capture how group behaviors, such as the formation of social bubbles and changes in risk-mitigating norms, can impact pandemic trajectories. The project, led by Northeastern University,...
This $199,295 National Science Foundation project grant funded the development of a comparative online simulation tool for COVID-19 vaccine allocation strategies. Funded under the Biological Sciences program (CFDA 47.074), the Fred Hutchinson Cancer Research Center will create a mathematical model of SARS-CoV-2 transmission incorporating multiple vaccines, viral variants, and demographic factors. This model will then be used to develop a free, open-source, online comparative tool allowing up...
INTEGRATED MODELING TO SUPPORT THE GLOBAL POLIO ERADICATION INITIATIVE (GPEI) AND MANAGEMENT OF OTHER VACCINE PREVENTABLE DISEASES - BACKGROUND: MATHEMATICAL MODELING CONTINUES TO SUPPORT THE GLOBAL POLIO ERADICATION INITIATIVE (GPEI) AS IT WORKS TO ACHIEVE AND MAINTAIN WILD POLIOVIRUS (WPV) ERADICATION, END THE USE OF ORAL POLIOVIRUS VACCINE (OPV), AND INTEGRATE GPEI ACTIVITIES AND ASSETS INTO OTHER HEALTH PROGRAMS. THE GPEI WAS OFF TRACK PRIOR TO SARS-COV-2 EMERGENCE AND DECLARATION OF THE COVID-19 PANDEMIC IN 2020. THE GPEI FACES MULTIPLE CHALLENGES: (I) COMPLETING WPV ERADICATION, (2) ENDING THE ONGOING TRANSMISSION OF SEROTYPE 2 VACCINE-DERIVED POLIOVIRUSES (VDPV2S) 5 YEARS AFTER GLOBAL CESSATION OF SEROTYPE 2 OPV FOR NON-EMERGENCY USE, (3) LIMITED FINANCIAL AND VACCINE RESOURCES, AND (4) THE NEED TO RECOVER PROGRAMMATIC ACTIVITIES FROM THE DISRUPTIONS CAUSED BY COVID-19. OVER THE NEXT 5 YEARS, THE GPEI STILL EXPECTS TO ERADICATE WPV AND COORDINATE PHASED CESSATION OF ORAL POLIOVIRUS VACCINE (OPV). NEW OPV (NOPV) STRAINS PROMISE TO REDUCE OPV RISKS, AND THE LICENSURE OF COVID-19 VACCINES MAKE IT NOW A VACCINE PREVENTABLE DISEASE (VPD). INTEGRATED ECONOMIC, RISK, AND DYNAMIC DISEASE MODELING IS NEEDED TO IDENTIFY AND SUPPORT COST-EFFECTIVE STRATEGIES FOR THEIR USE. OBJECTIVES: THIS WORK WILL EXTEND A HIGHLY-SUCCESSFUL COLLABORATION THAT CONTINUES TO SUPPORT HIGH-STAKES GPEI DECISION MAKING BY PROVIDING THE RESULTS OF INTEGRATED DISEASE MODELING AND ECONOMIC ANALYSES RELATED TO MANAGING THE POLIO ENDGAME, WHICH COULD EXTEND FURTHER TO SUPPORTING COVID-19 CONTROL. APPROACH: BUILDING ON PREVIOUSLY-DEVELOPED AND ACTIVELY UPDATED INTEGRATED MODEL, THE PROPOSED WORK WILL PROVIDE QUANTITATIVE ANALYSES TO ANSWER PRIORITY QUESTIONS RAISED BY GPEI PARTNERS DURING THE POLIO ENDGAME. THE PROPOSED WORK MAY ALSO APPLY AND EXPAND SIMILAR COLLABORATIVE MODELING EFFORTS TO SUPPORT BETTER GLOBAL CONTROL, ELIMINATION, OR ERADICATION OF OTHER PRIORITY VPDS, INCLUDING COVID-19.OUTCOMES: SHORT-TERM OUTCOMES OF THIS WORK FOR POLIO WILL INCLUDE CHARACTERIZING THE EXPECTED OUTCOMES OF UPDATED GPEI STRATEGIC PLANS (ANTICIPATED TO BECOME AVAILABLE IN 2021), MODELING POLIOVIRUS TRANSMISSION DYNAMICS AND EPIDEMIOLOGY IN PAKISTAN AND AFGHANISTAN AND OTHER PRIORITIZED HIGH-RISK AREAS, EXPLORING DIFFERENT STRATEGIES TO USE NOPV TO CONTROL VDPV2 OUTBREAKS AND COMPLETE OPV CESSATION, AND SYNTHESIZING LESSONS LEARNED. SHORT-TERM OUTCOMES OF THIS WORK FOR OTHER VPDS MAY INCLUDE THE DEVELOPMENT OF AN INTEGRATED MODEL FOR COVID-19. INTERMEDIATE OUTCOMES OF THIS WORK WILL INCLUDE ANALYSES THAT SUPPORT INFORMED DECISIONS BY THE GPEI AND OTHER STAKEHOLDERS RELATED TO DECISIONS AND STRATEGIES FOR VACCINES, SURVEILLANCE, CONTAINMENT, AND OTHER RISK MANAGEMENT ACTIVITIES, AND IMPROVED UNDERSTANDING AMONG MINISTRIES OF HEALTH AND KEY STAKEHOLDERS ABOUT LESSONS LEARNED FROM POLIO ERADICATION RELEVANT TO THE GLOBAL CONTROL, ELIMINATION, AND ERADICATION OF OTHER VPDS. LONG-TERM, THE OUTCOMES WILL INCLUDE KEY INSIGHTS ON ISSUES IDENTIFIED AS PRIORITIES AFTER THE FIRST YEAR, AN UPDATED HEALTH AND ECONOMIC ANALYSIS OF THE GPEI, AND IMPROVED UNDERSTANDING AND SUPPORTIVE POLICY DEVELOPMENT OF COST-EFFECTIVE OPPORTUNITIES TO BETTER MANAGE GLOBAL VPDS WITH FULL CONSIDERATION OF THE LESSONS LEARNED FROM POLIO ERADICATION EFFORTS. ANTICIPATED IMPACTS: THIS WORK WILL PROVIDE TIMELY AND CRITICAL ANALYTICAL SUPPORT FOR DOMESTIC AND GLOBAL HEALTH LEADERS AS THEY MANAGE POLIO AND OTHER PRIORITIZED VPDS BY SUPPORTING THE DEVELOPMENT OF COST-EFFECTIVE PROGRAMMATIC STRATEGIES.