Thermofluid Systems Research is a multidisciplinary field of research that generates knowledge regarding the impact of fluid flow, heat transfer, and thermodynamics on system performance and uses this knowledge to predict/improve the performance of the system(s) under consideration. Such research plays a crucial role in the following applications:
Space Exploration
Thermofluid systems research helps to enable the design, analysis, and operation of spacecraft, launch vehicles, and habitats, (particularly environmental control and life support systems). In the extreme environmental conditions of space, such research takes on the challenges of thermal management (including heat shielding), fluid management (including cryogenic fluid management), propulsion, and in-situ resource utilization (ISRU). Thermofluid systems research also plays a vital role in the development of advanced propulsion technologies, such as nuclear thermal propulsion, which will enable the continued exploration and development of deep space.
Energy Systems
Thermofluid systems research is essential for optimizing the efficiency and performance of advanced energy systems. The efficient generation and utilization of energy is and will remain one of most pressing challenges faced by humans in the twenty-first century. Thermofluid systems research enables the development of future thermodynamic energy generation technologies, energy storage systems, sustainable energy technologies (such as advanced heat pumps), enhanced heat transfer strategies, and advanced heat exchanger designs.
On-going projects:
Beginning June 1, 2024, the Center for Instructional Technology (CIT) will no longer host people.ua.edu websites for retired UA faculty members. As such, this website will not be accessible after that time. The CIT staff has been especially helpful to me, and for that I send them a very heartfelt thank you.
Space Exploration
Thermofluid systems research helps to enable the design, analysis, and operation of spacecraft, launch vehicles, and habitats, (particularly environmental control and life support systems). In the extreme environmental conditions of space, such research takes on the challenges of thermal management (including heat shielding), fluid management (including cryogenic fluid management), propulsion, and in-situ resource utilization (ISRU). Thermofluid systems research also plays a vital role in the development of advanced propulsion technologies, such as nuclear thermal propulsion, which will enable the continued exploration and development of deep space.
Energy Systems
Thermofluid systems research is essential for optimizing the efficiency and performance of advanced energy systems. The efficient generation and utilization of energy is and will remain one of most pressing challenges faced by humans in the twenty-first century. Thermofluid systems research enables the development of future thermodynamic energy generation technologies, energy storage systems, sustainable energy technologies (such as advanced heat pumps), enhanced heat transfer strategies, and advanced heat exchanger designs.
On-going projects:
- Energy Systems: Performance Optimization of Miniaturized Absorption Heat Pumps
- Enhanced Heat Transfer: Microscale Fins and Phase Change Material (PCM) Heat Sinks
- Thermal Management: Multi-Objective Optimization of Small-Scale Cryogenic Heat Exchangers
Beginning June 1, 2024, the Center for Instructional Technology (CIT) will no longer host people.ua.edu websites for retired UA faculty members. As such, this website will not be accessible after that time. The CIT staff has been especially helpful to me, and for that I send them a very heartfelt thank you.
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