Eskisehir Technical University Info Package Eskisehir Technical University Info Package
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About the Program Educational Objectives Key Learning Outcomes Course Structure Diagram with Credits Field Qualifications Matrix of Course& Program Qualifications Matrix of Program Outcomes&Field Qualifications
  • Faculty of Engineering
  • Department of Environmental Engineering
  • Course Structure Diagram with Credits
  • Thermodynamics
  • Learning Outcomes
  • Description
  • Learning Outcomes
  • Course's Contribution to Prog.
  • Learning Outcomes & Program Qualifications

  • describe basic concepts of Thermodynamics
  • restate defination of system, surrounding, closed and open system, extensive and intensive properties.
  • calculate absolute and gage pressure, and absolute temperature.
  • calculate changes in kinetic, potential, enthalpy and internal energy.
  • judge the properties of pure substances
  • judge the state of the pure sabstances such as compressed liquid, saturated liquid-vapor mixture and superheated vapor using property diagrams and tables
  • arrange the ideal and real gas equations of state.
  • formulate the first law of thermodynamics for a closed systems and arrange the change in energy in the closed systems via heat and work transfer
  • distinguish heat transfer by conduction, convection and radiation and calculated the amount of heat energy transfered.
  • calculate the changes in moving boundary work, spring work, electrical work and shaft work in closed systems.
  • apply first law of thermodynamics for closed systems and construct conservation of mass and energy equations.
  • apply the first law of thermodynamics to the open systems.
  • describe steady-flow open system.
  • apply the first law of thermodynamics to the nozzles, diffusers, turbines, compressors, throttling valves, mixing chambers, heat exchangers, pipe and duct flow
  • construct energy and mass balance for unsteady-flow processes.
  • assess thermodynamic applications using second law of thermodynamics.
  • calculate thermal efficiency and coefficient of performance for heat engine, refrigerators and heat pumps.
  • restate perpetual-motion machines, reversible and irreversible processes.
  • generate mass and energy balance equations for gas-vapor mixtures.
  • calculate dry air, atmospheric air, specific and relative humidity of air and dew-point temperature.
  • design wet cooling tower using psychrometric chart.
  • analyse energy changes in chemical reaction using first law of thermodynamic
  • formulate theoretical and real combustion equations and calculate the amount of excess and theoretical air .
  • arrange first law of thermodynamic for chemical reaction using enthalpy of formation and combustion and calculate adiabatic flame temperature.

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