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This course guide offers strategies for effective study of energy systems, including key concepts, problem-solving techniques, and examples from power generation to alternative energy systems. The course covers fundamentals of thermodynamics, thermodynamic property relations, gas mixtures, and applications in various fields. Resources and recommended study methods are provided for before, during, and after class. Examples of energy systems explored in the course are automobile engines, power stations, propulsion systems, HVAC systems, reacting systems, cooling of electronic equipment, alternative energy systems like fuel cells and solar power, and more. Dive into the world of energy systems with this comprehensive study guide.
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MAE 431 Energy System Fall 2002 Dr. Hui MengKnox 104MWF 8:00am http://www.eng.buffalo.edu/Courses/mae431/
How to study this course (similar to MAE335) • Before Class • Read (at least look at) assigned sections • In Class • Do not try to take detailed notes • Listen to, fill in, and understand what you have read • Write down key words for concepts, definitions, problem solving techniques, etc. so you know what to emphasize when reading the book. • Ask questions
How to study this course • After Class • Study key concepts – write out definitions and descriptions • Work assigned problems – simultaneously study theory and example solutions • Go to recitations only after you have tried to work the problems yourself. The TA will only give you hints when you are lost; they will not solve the homework problems for you. The TA may provide additional examples.
Examples of Energy Systems • Power Generation • Automobile engines (Ch. 9) • Fossil- & nuclear-fueled power stations (Ch. 8,9) • Propulsion systems for aircraft & rockets (Ch.9) • HVAC systems • Vapor compression refrigeration (Ch. 10) • Heat pumps (Ch. 10) • Air-conditioning (Ch. 12) • Reacting systems • Combustion (Ch. 13)
Examples of Energy Systems (cont’d) • Cooling of electronic equipment • Alternative energy systems • Fuel cells • Thermoelectric and thermionic devices • Magnetohydrodynamic (MHD) converters • Solar-activated heating, cooling, and power generation • Geothermal systems • Ocean thermal, wave, and tidal power generation • Wind power • Biomedical applications • Life-support systems • Artificial organs
Outline of This Course A. Fundamentals of Thermodynamics 1.Basic concepts and evaluating properties (Ch. 1,2,3) 2.Energy balance for closed and open systems (1st Law) (Ch. 2 +4) 3.Entropy balance for closed and open systems (2nd Law) (Ch. 5 + 6) 4.Availability analysis (Chapter 7) B.Application to Energy Systems 1.Vapor power systems (Chapter 8) 2.Gas power systems (Chapter 9) 3.Refrigeration and heat pump (Chapter 10) C.Thermodynamic Property Relations (Chapter 11) D.Gas Mixtures and Applications 1.Non-reacting gas mixtures, Psychrometrics (Chapter 12) 2.Reacting gas mixtures and combustion (Chapter 13)