Chadi Sayde
Department of Biological and Agricultural Engineering
Assistant Professor
D S Weaver Labs 184
Bio
Dr. Sayde believes that sustainable management of our agricultural and natural systems requires a paradigm shift in the way we manage our water. This paradigm shift will be largely driven by a new generation of physically based models and tools that enable continuous monitoring of our environment over wide range of temporal and spatial scales. Dr. Sayde’s research is focused on developing and employing advanced models and sensing systems to quantify water and energy movement across the soil-plant-atmosphere continuum from individual plants, to field and watershed scales. His objectives are to employ the ultra-high density of initial and boundary conditions measurements across the landscape to i) understand the underlying physical processes and the interaction between water, atmosphere, soil, topography, and vegetation, and ii) formulate engineered solutions to agricultural water management challenges that optimize economical return of water and minimize its adverse environmental impacts.
Areas of interests include:
- quantifying and understanding physical processes that control energy and water movement through the soil-plant-atmosphere continuum at 0.25-10,000 m scales
- development of distributed environmental sensing systems
- design and management optimization of irrigation systems
- development of physically based agricultural water management models
Education
Ph.D. Water Resources Engineering Oregon State University 2012
M.S. Land and Water Resources Management Istituto Agronomico Mediterraneo di Bari, Italy 2002
B.S. Agricultural Engineering University of Holy Spirit, Kaslik, Lebanon 1999
Publications
- Laboratory observations for examining estimates of soil dry surface layer thickness with parsimonious models , HYDROLOGICAL SCIENCES JOURNAL (2024)
- Water use and radiation balance of miscanthus and corn on marginal land in the coastal plain region of North Carolina , GLOBAL CHANGE BIOLOGY BIOENERGY (2024)
- High-Resolution Monitoring of Scour Using a Novel Fiber-Optic Distributed Temperature Sensing Device: A Proof-of-Concept Laboratory Study , SENSORS (2023)
- Optimization of the number and locations of the calibration stations needed to monitor soil moisture using distributed temperature sensing systems: A proof-of-concept study , JOURNAL OF HYDROLOGY (2023)
- Characterizing soil water content variability across spatial scales from optimized high-resolution distributed temperature sensing technique , JOURNAL OF HYDROLOGY (2022)
- High-Resolution Field Measurement of Soil Heat Capacity and Changes in Soil Moisture Using a Dual-Probe Heat-Pulse Distributed Temperature Sensing Approach , WATER RESOURCES RESEARCH (2022)
- A Model for Turbulence Spectra in the Equilibrium Range of the Stable Atmospheric Boundary Layer , JOURNAL OF GEOPHYSICAL RESEARCH-ATMOSPHERES (2020)
- High-Resolution Measurement of Soil Thermal Properties and Moisture Content Using a Novel Heated Fiber Optics Approach , WATER RESOURCES RESEARCH (2020)
- Classifying the nocturnal atmospheric boundary layer into temperature and flow regimes , QUARTERLY JOURNAL OF THE ROYAL METEOROLOGICAL SOCIETY (2019)
- A high resolution measurement of the morning ABL transition using distributed temperature sensing and an unmanned aircraft system , Environmental Fluid Mechanics (2018)