State University of New York at Buffalo

           mae 204 Thermodynamics

                         Summer 2010

http://www.eng.buffalo.edu/Courses/eas204

 

Time and Location:

Lecture:  M, W, F  11:001:10    4 Knox Hall

 

Instructor:

Mr. James Wulf

325   Jarvis Hall

645-1459

e-mail jbwulf@roadrunner.com

Office hours:   9:00–10:45 Monday, 1:20-3:00 Wednesday

                         and anytime by appointment..

Corrector

Rati Jain    ratijain@buffalo.edu

 

Text Book: 

 Thermodynamics: An Engineering Approach, sixth edition

 Yunus A. Cengel and Michael A. Boles.

 

Units

   The course will be taught using both SI and English units.

 

Course Outline:

Chapter 1 Concepts

   Thermodynamic system, properties, state point, process, cycle, heat, work.

    Thermodynamic Problem Solving Technique

 

Chapter 2  Heat and Work

    Work in non-flow, steady flow and unsteady systems.

     Adiabatic Process.  First Law

 

Chapter 3 Fluid Properties

    Real gases – steam, air, refrigerant tables

    Ideal gases

    Equations of state – Engineering Equation Solver CD in Text

 

Chapter 4 Closes System Analysis    

     Heat and work in closed non-flow, open flow and unsteady flow systems.

 

Chapter 5 Open System Analysis

 

Chapter 6 Second Law

     Statement and Corollaries

     Heat Engines

     Reversible engines and refrigerators

     Carnot Cycle

 

 Chapter 7 Entropy

     Second Law and heat engines

     The entropy property

      Isentropic process

      Entropy change calculation

 

Chapter 8 Exergy

 

 

Chapter 9 Gas Power Cycles

      Brayton ( gas turbine) Cycle

      Otto (spark ignition) Cycle

      Diesel Cycle

     

Chapter 10 Vapor Power Cycles

      Rankine (steam power) reheat, superheat and regeneration cycles.

 

 

Chapter 11 RefrigerationCycles

      Vapor Compression Cycle

       Heat Pumps

        Reversed Brayton Cycle

 

 

 

 

Grading:

    Homework                    10%

    Best 3 of 4 quizzes        10%

    Midterm exams             40%  

    Final                             40%

 

 

Grades will be converted to a T score by the following formula,

 

T-score = (Exam Score- Class Mean)/ Class Standard Deviation

 

 

  T-Score

 Grade 

1.2 or higher

  A

1.0 to 1.199

  A-

.8 to.999

  B+

0.4 to .799

  B

0.2 to .399

  B-

0.0 to .199

  C+

-.4 to -.001

  C

-.6  to -.399

  C-

-.8 to -.599

  D+

-1.0 to -.799

  D

-1.0 or less

   F

 

 

 

 

 

 

 

 

 

 

 

 

 

 

There will be

4 quizzes, a midterm exams and a final.

The 4 quizzes will be unannounced. The lowest quiz grade will be excluded.

All exams are open book, closed notes, closed homework.

Course notes for the coming week will be posed on the course web site on Friday.

Homework is due on Monday in class or my office before 6:30 PM.

 

Integrity Policy:

 

  There is nothing more dishonorable for an engineer, short of his work causing loss of life or property, than to present the work of another as his own.  This can happen in patent applications, reports, presentations, and technical papers.  Dishonesty in course work is the start of this slippery slope that ends in news stories such as we have seen reported last year or worse.  Pressure may be felt in school however it is more difficult, not easier, to maintain integrity in practice. 

 

    Presenting course work of another as your own will result in a reduction in grade usually to an F.