MET 32300 - Applied Thermodynamics And Heat Transfer

Prerequisite(s): PHYS 22000 FOR LEVEL UG WITH MIN. GRADE OF D- AND MA 16019 FOR LEVEL UG WITH MIN. GRADE OF D-

Credit Hours: 3.00. This course focuses on studying thermodynamic concepts including open and closed systems, thermo-physical properties of fluids and gasses, laws of thermodynamics and industrial applications in designing power and refrigeration cycles, as well as covering fundamental topics such as efficiency, exergy, and heat transfer mechanisms (Conduction, convection, and radiation). Investigation of performances of internal combustion engines and heat exchanges will also be explored. Laboratory sessions will cover practical applications of thermodynamics and heat transfer, focusing on solving current industrial problems associated with waste heat recover, solar photovoltaic energy generation, thermal energy storage, thermoelectric generators. Lab work will include computer simulations (using software packages such as Matlab, Energy 2D, and Energy 3D) and practical laboratory sessions in studying fluid and gas flows, and heat transfer in systems and aggregates.
Course Learning Outcomes
1. Explain fundamental concepts relevant to thermodynamics and heat transfer (work, energy, heat transfer, mass, and energy conservation laws). 2. Perform energy analysis for different industrial devices, such as turbines, compressors, nozzles, diffusers, heat exchangers, valves, and cycles, including refrigeration, Rankine, Otto, and Diesel thermodynamic cycles. 3. Determine the thermodynamic properties of pure substances. 4. Explain the second law of thermodynamics, the nature of irreversibility, and efficiency. .5 Explain the difference between various heat transfer mechanisms: convection, conduction and radiation. 6. Solve heat transfer problems associated with different industrial applications: internal flow in the circular pipe, external flow over the plate, pipe, or sphere. 7. Solve transient problems, including quenching or rapid cooling metal parts in water, air, or other mediums. 8. Design various types of heat exchangers.

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