Thermodynamics
Thermodynamics is central to chemical and materials engineering. Our department excels in applying thermodynamic principles to reactions, cryobiology, colloids, polymers and material structures—advancing technologies in energy, healthcare and manufacturing through fundamental research and real-world applications.
Thermodynamics underpins much of chemical and materials engineering, providing the foundation for understanding energy transformations, phase behavior and chemical equilibria. Our department has a long-standing reputation for excellence in both fundamental thermodynamic theory and its diverse applications. Research areas include chemical reactions, cryobiology and cryopreservation, where thermodynamics governs biological survival at low temperatures, and colloids and surface interactions, vital for product stability in pharmaceuticals and consumer goods. Work on polymer blends and microstructural evolution in materials helps design advanced materials with tailored properties. This research supports innovation across fields such as energy systems, materials processing, biomedical preservation and sustainable product development.
Possible Careers
- Chemical engineer (thermodynamics focus)
- Energy systems engineer
- Sustainable product development engineer
Current Research
Defining Limits in Fundamental Energy Science and Advanced Systems
Delve into the foundational principles that govern all chemical and physical change, using rigorous theoretical and molecular modeling approaches. This work defines the limits of energy conversion, material behavior, and system performance. Our researchers apply these principles to complex industrial systems, focusing on phase equilibria, energy systems, and advanced material development. Molecular modeling and mathematical techniques are utilized to understand and predict phenomena ranging from transport-reaction behavior to the physical properties of nanomaterials and colloids. This core research provides the necessary foundation for advanced process design, optimization, and the critical assessment of emerging energy technologies.