Chad Higgins

Professor Chad Higgins is an esteemed Associate Professor in the Department of Biological & Ecological Engineering at Oregon State University's College of Agricultural Sciences. With a profound dedication to advancing sustainable agricultural practices, his research primarily revolves around agrivoltaics, water management in agriculture, environmental fluid mechanics, and soil-plant-atmosphere fluxes. Professor Higgins is at the forefront of pioneering research projects that aim to enhance our understanding and management of agricultural ecosystems. One of his notable projects involves the development of high-resolution Raman Lidar technology for measuring atmospheric water vapor, a critical component in understanding and predicting weather patterns and their impact on agriculture. This innovative approach promises to provide unprecedented insights into atmospheric conditions, facilitating more informed decision-making in agricultural practices. In addition to his work with Raman Lidar, Professor Higgins is deeply engaged in investigating the effects of land surface variability on fluxes. By utilizing Large Eddy Simulation and conducting comprehensive field experiments, he seeks to unravel the complex interactions between land surfaces and atmospheric processes. This research is crucial for improving models that predict weather and climate, ultimately aiding in the development of more efficient and sustainable agricultural systems. Another significant aspect of Professor Higgins' research is the development of a path-averaged water vapor sensor specifically designed for irrigation scheduling. This cutting-edge technology aims to optimize water usage in agriculture, ensuring that crops receive the precise amount of water needed for optimal growth while minimizing waste. By integrating this sensor into irrigation systems, farmers can achieve significant water savings, contributing to the sustainability of agricultural practices in water-scarce regions. Professor Higgins' work is characterized by its interdisciplinary nature, bridging the gap between engineering, environmental science, and agriculture. His contributions to the field have not only advanced scientific understanding but also hold the potential to transform agricultural practices, making them more resilient and sustainable in the face of changing environmental conditions. Through his research and teaching, he continues to inspire the next generation of engineers and scientists to tackle the pressing challenges facing our global agricultural systems.