This
is a tentative outline of the material that will be covered
and
the appropriate reading assignments. Note, class lectures will parallel
and expand upon the coverage in the textbook.
| Subjects |
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| I. Background and Overview of Conventional Propulsion Systems (on your own, compressible flow review) |
141-146 | Ch. 1 Ch. 5 Ch. 3 |
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| II. Mechanics and Thermodynamics of Gases | |||
| A. TD Systems and Conservation Eqns, CV Examples | 23-32 | Ch. 2 | |
| B. Thermodynamic Properties: State Equations & Ideal Gases, CV Examples | 32-33 | ||
| C. Ideal Gas Mixtures | 33-39 | ||
| D. Equilibrium Chemical Thermodynamics | 40-56 | ||
| 1. Chemical Energy | |||
| 2. Equilibrium Chemical Composition | |||
| E. Thermodynamic Cycle
Analysis (Ideal Cycles: Carnot & Brayton) |
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| III. Airbreathing Propulsion Systems | |||
| A. Overview and Engine Performance Parameters | |||
| 1. Thrust and Specific Thrust | 146-149 | Ch. 5 | |
| 2. Specific Fuel Consumption and Efficiencies | 149-155 | ||
| 3. History of Jet Engine Performance | |||
| B. Ramjets | 155-164 | ||
| 1. Overview | |||
| 2. Ideal Ramjet Relations | |||
| 3. Effect of Aerodynamics Losses ("Real Ramjets") | |||
| C. Turbojets | 164-177 | ||
| 1. Overview | |||
| 2. Cycle Analysis | |||
| 3. Performance | |||
| D. Turbofans | 177-189 | ||
| 1. Overview | |||
| 2. Cycle Analysis | |||
| 3. Performance |
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| 4. Optimum Bypass Ratio, Pressure Ratios and their Evolution | |||
| E. Turboprop and Turboshaft Engines | 189-196 | ||
| IV. Rocket Propulsion Systems | |||
| A. Overview | |||
| B. Thrust and Impulse |
470-472 | Ch. 10 | |
| 1. Static Thrust | |||
| 2. Equivalent Exhaust Velocity | |||
| 3. Impulse and Specific Impulse | |||
| C. Vehicle Acceleration |
472-478 | ||
| 1. Rocket Equation |
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| 2. Gravity Losses and Burn Time | |||
| 3. Drag Losses | |||
| D. Chemical/Thermal Rockets | |||
| 1. Ideal Rocket Cycle Analysis | |||
| 2. Characteristic Velocity c* and Thrust Coefficient CT | 515-520 | Ch. 11 | |
| 3. Calculating c* and CT: equilibrium and frozen flow calculations | 570-581 |
Ch. 12 | |
| 4. Liquid Propellant Cycles: Gas Feed and Turbopump Systems |
615-621 |
Ch. 13 | |
| 5. Solid Rocket Motors |
589-593 598-602 |
Ch. 12 | |
| 6. TCA Cooling - Heat Transfer |
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| E. Electric Propulsion | 651-680 | Ch. 14 | |
| 1. Performance Considerations |
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| 2. Physics Background | |||
| 3. Example Systems | |||
| V. Analysis of Turbine Engine Components | |||
| A. Inlets | 217-241 | Ch. 6 | |
| 1. Subsonic |
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| 2. Supersonic | |||
| B. Nozzles | 264-268 | ||
| C. Combustors | 242-262 | ||
| 1. Characteristics and Requirements | |||
| 2. Combustion Chamber Configurations | |||
| 3. Choking of Afterburners and Ramjets | |||
| D. Turbomachinery Overview | 275-280 | Ch. 7 | |
| 1. Configurations and Nomenclature | |||
| 2. Euler Turbomachinery
Equations (angular momentum) |
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| 3. Degree of Reaction and Flowfields |
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| E. Compressors | 275-303 | Ch. 7 | |
| 1. Cascade Analysis and Velocity Triangles |
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| 2. Stage Characteristics | |||
| 3. Multistage Performance |
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| 4. Stability and Surge |
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| F. Turbines | 367-402 | Ch. 8 | |
| 1. Overview | |||
| 2. Cascade Analysis and Characteristics (Maps) |
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| 3. Blade Design and Compressor-Turbine Matching |
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| 4. Stresses and Blade Cooling | |||