معرفی
Alan Whittington is a Professor in the Department of Earth and Planetary Sciences at The University of Texas at San Antonio (UTSA), where he leads the Heat and Mass Transfer and Experimental Rheology (HAMsTER) Lab. His research integrates petrology, volcanology, and planetary science to study volcanic processes on Earth and other planetary bodies, with a strong emphasis on experimental techniques and materials science.
His research interests focus on:
- Experimental determination of lava rheology and thermal properties
- Volcanic processes and hazards on Earth and other planets
- Lunar in situ resource utilization for construction materials
- Cryovolcanism on icy moons like Europa
- Heat transfer and crystallization in magmatic systems
- Thermal properties of planetary materials
His recent publications reveal a strong trend toward interdisciplinary research combining experimental petrology with planetary applications, particularly in lunar construction materials and volcanic flow dynamics. Studies on regolith sintering, spontaneous reheating of lava, and geospeedometry demonstrate his lab's focus on thermodynamic and kinetic processes in geological materials. The work spans from fundamental laboratory experiments to applied research supporting future space exploration.
Scientific honors include:
- AAAS Fellow (2024)
- Fellow of the Geological Society of America (2017)
- NSF CAREER Award (2008)
Dr. Whittington actively mentors students at all levels, including undergraduates, MS, PhD, and postdoctoral researchers, fostering a collaborative research environment. He has secured significant research funding from NASA, NSF, and industry partners for projects related to lunar construction, stardust analogs, and lava emplacement. His lab collaborates extensively with the UTSA College of Engineering, Physics and Astronomy, and external partners on interdisciplinary projects advancing space science and volcanic hazard understanding.
The HAMsTER Lab serves as a hub for experimental geoscience research, equipped with advanced instrumentation including differential scanning calorimeters, high-temperature rheometers, and thermal conductivity measurement systems. The lab supports both fundamental research on magmatic processes and applied research for space exploration technologies, particularly focused on sustainable lunar infrastructure development.
