52nd AIAA/SAE/ASEE Joint Propulsion Conference · 2016 · 34 citations · 5 references
EngineeringAerospace EngineeringMechanical EngineeringInternal Combustion EnginesPropulsionThermodynamicsEngine DesignEngine ModelingEngine PerformanceEngine SystemsGas Turbine EnginesTurbojet EnginesBrayton CycleDesign CriteriaEngine Performance AnalysisEngine Performance ModelingEngine SimulationGas Turbine GeneratorsGeneratorsSystem Performance Modeling
The cost and risk associated with the design and operation of gas turbine engine systems has led to an increasing dependence on mathematical models. In this paper, the fundamentals of engine simulation will be reviewed, an example performance analysis will be performed, and relationships useful for engine control system development will be highlighted. The focus will be on thermodynamic modeling utilizing techniques common in industry, such as: the Brayton cycle, component performance maps, map scaling, and design point criteria generation. In general, these topics will be viewed from the standpoint of an example turbojet engine model; however, demonstrated concepts may be adapted to other gas turbine systems, such as gas generators, marine engines, or high bypass aircraft engines. The purpose of this paper is to provide an example of gas turbine model generation and system performance analysis for educational uses, such as curriculum creation or student reference.
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Jane's All the World's Aircraft, 1951-52.
Henry M. Dater, Leonard Bridgeman · Military Affairs · 1952 · 359 citations
Engineering, Aerospace Engineering, Industrial Engineering +14
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Jeffryes W. Chapman, Thomas Lavelle, Ryan May et al. · 50th AIAA/ASME/SAE/ASEE Joint Propulsion Conference · 2014 · 85 citations · Full text
Engineering, Mechanical Engineering, Systems Engineering +17