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Mechanics and Thermodynamics of Propulsion (AE 203)
                         Instructors:
Dr. Pratikash Panda               Dr. Irfan A. Mulla
Email: pratikashp@iisc.ac.in      Email: irfanmulla@iisc.ac.in
Office: AE 237                    Office: AE 238
       Class Schedule: M,W,F: 12.00 pm – 1:00 pm
       Classroom : AE 105
           Grading Policy:
           • Homework/Project: 30%
           • Mid-Term 1: 20%
           • Mid-Term 2: 20%
           • Final: 30%
                Aerospace Propulsion
                            Air-Breathing Engines
                                                     Scramjet based Hypersonic
       Aviation Gas Turbine Engine                   Propulsion Technology
Chemical Rocket Engines                         Combined-Cycle Engines
                                                    Turbine-based Combined Cycle
                                                                                 3
                    AE 203: Course Syllabus
•   Introduction and History: Lecture 1
     Jet propulsion principle, history of rocket propulsion and air-breathing
     propulsion.
•   Mechanics and Thermodynamics of Fluid Flow: Lecture 2- 10
     System and control volume, brief review of Reynolds transport theorem and
     conservation equations, Thrust equation. First law of thermodynamics,
     Control volume analysis, second law of thermodynamics, concept of
     entropy, entropy generation, 1D flow of perfect gas, 1D isentropic flows,
     conservation equations, Stagnation and static quantities, Rayleigh and
     Fanno-flows, Shocks.
                    AE 203: Course Syllabus
•   Fundamentals of Air-breathing Propulsion: Lecture 19 - 27
     Modern aero-propulsion engines, Thermodynamics of air-breathing
     engines, ideal Brayton cycle, land-based gas turbine cycles, component
     efficiencies, thrust and efficiency of aircraft-engines, gas turbine cycles for
     air-craft propulsion, Intakes and nozzle efficiency, simple turbojet cycles,
     turbojet engines, turbofan engines, turboprop engines, thrust
     augmentation, after-burners, scramjet engines. Prediction of performance
     of simple gas turbine turbines, off-design performance.
•   Fundamentals of Rocket Propulsion: Lecture 11-18
     Classification of rocket propulsion systems, Mission analysis, mission
     requirements for launch vehicles, trajectory analysis and rocket design,
     Multi-stage rockets
•   Advanced Topics: Lecture 28 - 30
     Combined cycle engines, Turbine-based combined cycle (TBCC), Rocket
     based combined cycle (RBCC).
                         AE 203: Course References
References:
   1. Mechanics and Thermodynamics of Propulsion by Philip Hill and Carl Peterson, Pearson
   2nd Edition
   2. Gas Turbine Theory by HIH Saravanamuttoo, H. Cohen and GFC Rogers, Pearson 7th
   Edition
   3. Fundamentals of Engineering Thermodynamics, M. Moran and H. Shapiro, John Wiley &
   Sons Inc, 7th Edition.
   4. Introduction to Fluid Mechanics, Fox, McDonalds and Pritchards, John Wiley and Sons
   Inc, 8th Edition.
   5.Rocket Propulsion Elements by Sutton and Biblarz, Wiley Interscience, 7th Edition
   6. Rocket Propulsion by S. Heister, W. E. Anderson, T.L. Pourpoint, R.J. Cassady,
   Cambridge 1st edition.
   7. The Scramjet Engine by Corin Segal, Cambridge publication.
Additional References:
  1. Elements of Gas Turbine Propulsion by J. D. Mattingly, McGraw Hill 1996
  2. Jet propulsion by Nicholas Cumpsty and Andrew Heyes, Cambridge University Press,
  2015
  3. High-speed flight propulsion system by S. Murthy and E. Curran, Progress in Aeronautics
  and Astronautics, AIAA Vol 137
  4. Latest literature on propulsion
Pre-requisites: Fluid Mechanics, Thermodynamics, Gas Dynamics.