GRADUATE  COURSES

ADVANCED THERMODYNAMICS-ME511

 

 

General foundations of thermodynamics valid for small and large systems, and equilibrium and nonequilibrium states. Definitions of work, energy, stable equilibrium, available energy, entropy, thermodynamic potential, and interactions other than work (nonwork, heat, mass transfer). Applications to properties of materials, bulk flow, energy conversion, chemical equilibrium, and industrial manufacturing.

 

 

 

COMBUSTION-ME532               

 

 

Review of chemical thermodynamics and reaction kinetics, fuel characteristics and explosion limits, conservation equation, Schvab-Zeldovic formulation, diffusion flame, premixed flames ignition and pollution.

 

 

DESIGN OF THERMO-FLUID SYSTEMS-ME534                            

 

 

System design concepts, models and simulation. Application of linear and nonlinear optimization methods. Economic considerations. Application to various thermo-fluid systems. Use of general purpose and package programs. Design term projects.

 

SPECIAL TOPICS IN THERMO-FLUID SYSTEMS-ME552

Graduate level topics in the areas of thermo-fluid systems that are not covered in the existing curriculum. Arranged depending on available faculty and student interest.

 

SECOND LAW ANALYSIS AND THERMOECONOMICS OF ENERGYSYSTEMS-ME538

 

 

Presentation of the exergy concept and exergy losses, applications in energy systems encoun­tered in thermal energy and/or power generation and manufacturing industries, application of principles of thermoeconomics towards exergy based costing and exergy aided cost minimi­zation.

 

 
MODERN POWER PLANT SYSTEMS-ME657

 

 

Review of power plant thermodynamics (1st and 2nd laws, Carnot, Rankine, gas turbine and combined cycles); Steam turbines, gas turbines and combined cycles; Combustion of fossil fuels /biomass ; gasification of fossil fuels /biomass; Hydrogen , its production and storage; Reaction thermodynamics and kinetics; Electrochemical reactions;  low and high temperature fuel cells; Renewable energy based  power plants (solar, wind , geothermal power plants ); Efficiency and environmental aspects

 

ADVANCED COMBUSTION-ME671

 

 

Advanced tratment of fundamental combustion proceses, conservation equations for reacting gas mixture, the structure of one-dimensional diffusion and premixed flames, 2-dimensional Burke-Schuman flames, and boundary layer combustion, flame instabilities and flame stretch, turbulent combustion.

 

 

 

MODERN POWER PLANT DESIGN-ME658

 

Thermodynamic analysis of  power plants with special emphasize on subsystem selection, system integration and balance of plant; mass, energy balances; calculation of 1st and 2nd law efficiencies; design of combustor and/or gasifier; fuel conversion ; emission reduction options; utilization of simulation programs and preparation of own codes. Creative term projects will be assigned to be worked out if needed with experts from the actual power generation arena.  Modern systems such as IGCCs , and fuel cell integrated power generation options will be emphasized.

 

UNDERGRADUATE COURSES

Thermodynamics I and II

Engineering Graduation Project I and II