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CHEE 210  Thermodynamics of Energy Conversion Systems  Units: 3.50  
This course is an introduction to thermodynamics for chemical engineering systems analysis. The principles arising from First and Second laws of thermodynamics will be applied to the solution of mass, energy, and entropy balances for homogeneous closed and open systems. Properties of ideal gases and real fluids will be derived from Equations of State and applied in the analysis of simple flow processes. The students will compute efficiencies and coefficients of performance for energy production, conversion, and storage systems. The impacts of energy process design choices on efficiency, performance, and sustainability will be measured through exergy analysis.
(Lec: 3, Lab: 0, Tut: 0.5)
Requirements: Prerequisites: CHEE 221 (or MINE 201) Corequisites: None Exclusions:   
Offering Term: W  
CEAB Units:    
Mathematics 0  
Natural Sciences 0  
Complementary Studies 0  
Engineering Science 42  
Engineering Design 0  
Offering Faculty: Smith Engineering  

Course Learning Outcomes:

  1. Develop and solve material, energy, and entropy balances for process components, open or closed.
  2. Apply the First Law of Thermodynamics to compute heat, work, and changes in internal energy and enthalpy for the analysis of open or closed homogeneous systems undergoing reversible or irreversible processes. Apply the Second Law of Thermodynamics and the concept of entropy production to the analysis of open or closed homogeneous systems undergoing reversible or irreversible processes.
  3. Use the fundamental relation or the equation of state of a given substance to determine changes in its properties and to compute changes in macroscopic quantities of interest. Understand the relationships between internal energy, enthalpy, entropy, Gibbs and Helmholtz free energies potentials. Relate these potentials to fluid properties, measurable variables, and macroscopic quantities of interest.
  4. Describe and analyze the performance and efficiency of gas engines. Describe and analyze ideal and non-ideal gas cycles, including Brayton cycles, regenerator cycles, and gas refrigeration cycles. Apply the combined material, energy, entropy, and exergy balance equations to solve and analyze process flow problems.
  5. Describe and analyze the performance and efficiency of ideal and non-ideal multi-phase cycles, including Rankine cycles, combined cycles, cogeneration cycles, reheat cycles, and refrigeration cycles. Apply the combined material, energy, entropy, and exergy balance equations to solve and analyze process flow problems.
  

Chemical Engineering

http://queensu-ca-public.courseleaf.com/graduate-studies/programs-study/chemical-engineering/
The Chemical Engineering department is based in Dupuis Hall, which is a multi-purpose facility with extensive research laboratories, and large-and small-group teaching classrooms. Department researchers in the bioengineering and bioremediation fields also have laboratory facilities in the multi-disciplinary Biosciences complex, Nicole Hall, and in the Centre for Health Innovation at the Kingston Health Sciences Centre. We are a medium-sized department, with sufficient size to ensure a breadth of research activities, yet small enough to foster a cohesive learning environment. Research serials and books are housed in the Engineering and Science Library, and a variety of search and document delivery facilities are available on-line. Research is being conducted in the fields of materials and interfaces, bioengineering, sustainable energy sources, and data analytics, optimization and control. Facilities within the polymer and reaction engineering field include a variety of bench and pilot scale polymerization reactors (gas-phase polyolefin, solution and emulsion free-radical, living-radical and condensation polymer systems), polymer processing equipment (twin-screw extruder, Haake internal mixer), rotational and capillary rheometers, fuel cell equipment, and the biomedical research facilities include cell and tissue culture labs. The Chemical Engineering Analytical Facility (ChEAF) was established for the measurement of polymeric physical, thermal and structural properties, and is supported by the Senior Research Engineer. Physical measurements and chemical analyses are carried out using a variety of instruments such as gas chromatographs, elemental analyzer, HPLCs, gel permeation chromatographs, BET surface area analyzer, capillary hydro-dynamic fractionation submicron particle size analyzer, spectrophotometers, IR, FTIR, GC mass spectroscopy, and also by means of novel probes based in light scattering, absorption and fluorescence. Research computations are conducted using a wide range of symbolic computation, numerical analysis, statistical analysis and process simulation software.  The research laboratories are supported by two departmental laboratory technologists while the computing facilities are supported by Smith Engineering Information Technology Group.