
About Course
Thermodynamics II for mixtures and mixing processes. Moist air, heating, and ventilation. Exergy, irreversibility, exergy analysis. Chemical reactions. Combustion, mass and energy conversion, heating values, flame temperature, exergy, and irreversibility. Thermodynamic relations; relations between properties that can be measured (mass, volume, pressure, temperature) and properties that can not be measured (energy, enthalpy, entropy, etc.). Thermodynamic equilibrium; chemical equilibrium, incomplete combustion, pollutant formation; phase equilibrium.
The student gets insight into:
– Thermodynamics of mixtures for ideal gases, including moist air.
– Combustion and other reactions.
– Thermodynamics of real gases and mixtures of real gases.
– Thermodynamic relations, properties, and data.
– Exergy analysis.
– Chemical and phase equilibrium.
Skills:
The student should be able to:
– Determine thermodynamic properties for relevant substances and mixtures.
– Define and analyze thermodynamic systems using the 1st and 2nd laws.
– Put up the balances for mass, energy, entropy, and exergy for technical systems and determine the involved quantities.
– Use the theory to solve practical engineering problems.
– Use the theory to understand processes in nature and the environment.
– Further, work on energy processes and other thermodynamic processes.
Course Content
Thermodynamics II
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Thermodynamics: Course overview, Review of thermodynamics fundamentals
00:00 -
Thermodynamics: Clapeyron equation, Various thermodynamic property relationships
00:00 -
Thermodynamics: Other thermodynamic property relationships, Ideal gases
00:00 -
Thermodynamics: Overview of ideal gas mixtures, Amagat’s and Dalton’s laws
00:00 -
Thermodynamics: Properties of ideal gas mixtures, Dry air/water vapor mixtures
00:00 -
Thermodynamics: Humidity, Enthalpy of air/water vapor mixtures, Dew point
00:00 -
Thermodynamics: Dew point, Adiabatic saturation, Psychrometer
00:00 -
Thermodynamics: Psychrometric chart, Air conditioning processes
00:00 -
Thermodynamics: Midterm review, Heating with humidification, Dehumidification by cooling
00:00 -
Thermodynamics: Dehumidification by cooling, Evaporative cooling, Cooling towers
00:00 -
Thermodynamics: Wet cooling towers, Stoichiometric combustion
00:00 -
Thermodynamics: Combustion with excess air, dew point of combustion products
00:00 -
Thermodynamics: Review of midterm exam, Maxwell relations
00:00 -
Thermodynamics: Non-ideal vapor-compression cycle, absorption refrigeration cycle
00:00 -
Thermodynamics: Review of fundamentals, variable specific heats, isentropic efficiency
00:00 -
Thermodynamics: Review of thermodynamic cycles, Gas power cycles, Otto Cycle
00:00 -
Thermodynamics: Otto cycle, Diesel cycle
00:00 -
Thermodynamics: Diesel cycle
00:00 -
Thermodynamics: Stirling and Ericsson cycles, Ideal and non-ideal simple Brayton cycle
00:00 -
Thermodynamics : Brayton cycle with regeneration, Brayton cycle with intercooling
00:00 -
Thermodynamics: Brayton cycle with intercooling and reheating, Ideal simple Rankine cycle
00:00 -
Thermodynamics : Ideal and non-ideal Rankine cycle, Rankine cycle with reheating
00:00 -
Thermodynamics : Rankine cycle with reheating, Feedwater heaters
00:00 -
Thermodynamics: Rankine cycle with open feedwater heater, Closed feedwater heater
00:00 -
Thermodynamics: Closed feedwater heaters, Vapor-compression refrigeration cycle
00:00 -
Thermodynamics: Combustion with excess air review, Course review
00:00