Covers principles of vacuum generation, measurement, and system design. Topics include vacuum pumps, gauges, leak detection, materials for vacuum systems, and applications in cryogenic and research environments.

Focuses on the design and analysis of cryogenic heat transfer equipment including heat exchangers, vaporizers, condensers, and insulation systems used in low-temperature applications.

Practical operation and performance analysis of liquefiers, cryocoolers, vacuum systems, and instrumentation.

Advanced study of heat and mass transfer phenomena in cryogenic systems including phase change, boiling, condensation, diffusion, and transport processes at low temperatures.

Covers design and operation of cryogenic storage tanks and transfer systems. Topics include insulation methods, boil-off control, safety considerations, and handling procedures for cryogenic fluids.

Discusses design principles and applications of superconducting magnets including magnetic field analysis, stability, quench protection, cryogenic cooling, and uses in MRI, accelerators, and research facilities.

Covers thermodynamic cycles and engineering design of cryogenic liquefaction systems and cryocoolers. Topics include Claude and Brayton cycles, refrigeration principles, and industrial applications.

Provides foundational knowledge of low-temperature engineering and superconductivity. Includes properties of cryogenic fluids, refrigeration systems, superconducting materials, and key industrial and research applications.

Examines hazards associated with cryogenic fluids including oxygen deficiency, pressure buildup, material embrittlement, and safe handling procedures in laboratories and industrial plants.

Studies physical behavior of matter at low temperatures including quantum effects, superfluidity, superconductivity, and low-temperature material properties.

Seminar-based course where students present and discuss recent advances in cryogenic engineering, superconductivity, and related research areas to develop technical communication skills.

Hands-on laboratory course on low-temperature physics and high-vacuum systems. Covers vacuum generation, measurement techniques, cryogenic fluid handling, and experimental methods used in cryogenic research.

Study of hydrogen as a clean energy carrier including production methods, storage technologies, transportation, safety considerations, and applications in fuel cells and energy systems.

Laboratory course on heat transfer at cryogenic temperatures including boiling heat transfer, thermal conductivity, insulation techniques, and performance evaluation of cryogenic systems.

Covers cryogenics and superconductivity applications in particle accelerators including superconducting materials, cooling systems, RF cavities, and cryomodules.

Comprehensive course on Liquefied Natural Gas systems including liquefaction processes, storage design, transportation, regasification, safety standards, and global infrastructure.

Covers principles and design of cryogenic and semicryogenic rocket propulsion systems. Topics include propellant properties, engine cycles, turbopumps, combustion systems, performance analysis, and applications in launch vehicles.

Discusses ultra-low temperature techniques below 1 Kelvin including dilution refrigeration, adiabatic demagnetization, superfluid helium systems, and applications in quantum research and advanced physics experiments.

Focuses on low-temperature gas separation such as air separation, helium purification, and hydrogen processing with thermodynamic principles and industrial applications.

Covers measurement and control techniques in cryogenic environments including temperature sensors, pressure measurement, flow instrumentation, and data acquisition systems.

Introduces superconducting materials and their applications including superconducting magnets, SQUIDs, Josephson junctions, MRI systems, and quantum computing components.

Introduces modeling and simulation of cryogenic process plants using computational tools. Covers process flow diagrams, thermodynamic property estimation, simulation software, optimization, and performance analysis of industrial cryogenic systems.

Focuses on superconducting materials and their applications in power systems including superconducting cables, transformers, fault current limiters, SMES systems, and grid integration technologies.

Examines cryogenic methods for carbon capture and storage (CCS). Covers CO₂ separation techniques, liquefaction processes, energy efficiency considerations, and industrial applications for emission reduction.