Richard C. Elliott

Richard C. Elliott is a Clinical Assistant Professor at the Micron School of Materials Science and Engineering, Boise State University, where he joined in 2016 as an Assistant Research Professor. His academic appointment reflects his dual expertise in computational physics and public health, with a mission to eliminate malaria through innovative modeling approaches. He holds a Ph.D. in Physics from the University of Washington (2005) and a B.A. in Physics from Carleton College (1997), grounding his interdisciplinary work in rigorous scientific methodology.

His educational background:

• Ph.D. in Physics, University of Washington, 2005
• B.A. in Physics, Carleton College, 1997

Dr. Elliott's research integrates statistical field theories from physics with epidemiological modeling to address vector-borne diseases. His primary focus is malaria transmission dynamics, where he applies physical mechanisms to identify vulnerabilities in mosquito-to-host pathways. This work directly supports UN Sustainable Development Goal 3 (Good Health and Well-being). His secondary research stream explores materials science applications, particularly in ore processing for nickel and manganese extraction, demonstrating his unique cross-disciplinary approach.

Recent publications (2020-2024) reveal a strategic pivot toward field-validated malaria interventions in Uganda, including quasi-experimental trials on indoor residual spraying and mass drug administration, while maintaining active contributions to materials science through microwave-based ore processing techniques. The malaria studies emphasize community-level implementation and policy optimization, whereas the materials research focuses on energy-efficient extraction methods.

Professional engagements include:

• Research Consultant, Idaho Department of Health and Welfare (2020–present)
• Research Consultant/Project Manager, Sagebrush Scientific (2014–2019)
• Associate Faculty, Feather River College (2013–2014)

His grant-funded work centers on malaria elimination strategies in sub-Saharan Africa, often involving partnerships with Ugandan health agencies and nonprofit organizations. These projects prioritize resource optimization and reduced chemical exposure while developing predictive models for disease control. Collaborations span computational modelers, epidemiologists, and field researchers across multiple continents.

Dr. Elliott leads a hybrid research team that combines computational modelers focused on disease transmission dynamics with materials scientists developing ore processing techniques. Current projects include openMalaria simulations for intervention planning and microwave-based mineral extraction processes, both aiming for real-world implementation in resource-limited settings.