Professor Chad Higgins is a leading authority in the field of agrivoltaics, combining innovative research in environmental fluid mechanics, water management, and sustainable agricultural practices to address global challenges. Based at Gilmore Hall, Corvallis, Oregon, he spearheads groundbreaking projects that integrate solar energy systems with agriculture, fostering sustainability and efficiency in land use.
With expertise spanning atmospheric processes, hydrology, and soil-plant-atmosphere interactions, Professor Higgins focuses on optimizing water management and advancing measurement techniques to improve agricultural productivity and environmental resilience. His work explores the effects of land surface variability on transport processes, employing cutting-edge tools like Large Eddy Simulations and Raman Lidar to unravel complex environmental dynamics.
Professor Higgins also leads the Oregon Agrivoltaic Research Facility at Oregon State University, where he combines research and education to design systems that maximize agricultural production alongside solar energy generation. By developing integrated systems rather than retrofitting existing solar arrays, his approach enhances both energy efficiency and agricultural productivity while promoting sustainable resource use. Under his leadership, the research facility conducts diverse studies on plant physiology, soil health, water usage, and wildlife interactions within solar arrays. Supported by partnerships with organizations like the Oregon Clean Power Cooperative, the facility fosters community-funded development and hands-on learning opportunities through site tours and experiential programs for students and professionals.
In his role as the lead investigator of agrivoltaic projects in Nigeria, Professor Higgins leverages interdisciplinary approaches to address food and energy security. His research delves into innovative technologies, including the development of high-resolution Raman Lidar systems for atmospheric water vapor analysis and path-averaged water vapor sensors to refine irrigation practices. These advancements offer actionable insights into sustainable resource management, urban planning, and climate resilience.
Committed to fostering global impact, Professor Higgins combines state-of-the-art numerical modeling, field experiments, and instrument development to tackle pressing environmental and agricultural challenges. Through his work, he continues to push the boundaries of knowledge, driving solutions for a more sustainable future.