Abstract
The introduction of intercooling and regeneration in a gas turbine engine can lead to performance improvement and fuel consumption reduction. Moreover, as first consequence of the saved fuel, also the pollutant emission can be greatly reduced. Turboprop seems to be the most suitable gas turbine engine to be equipped with intercooler and heat recuperator thanks to the relatively small mass flow rate and the small propulsion power fraction due to the exhaust nozzle. However, the extra weight and drag due to the heat exchangers must be carefully considered. An intercooled-recuperated turboprop engine is studied by means of a thermodynamic numeric code that, computing the thermal cycle, simulates the engine behavior at different operating conditions. The main aero engine performances, as specific power and specific fuel consumption, are then evaluated from the cycle analysis. The saved fuel, the pollution reduction, and the engine weight are then estimated for an example case.
©[2012] by Walter de Gruyter Berlin Boston
Articles in the same Issue
- Masthead
- Structural Analysis and Optimization of a Composite Fan Blade for Future Aircraft Engine
- Fuel Consumption Reduction and Weight Estimate of an Intercooled-Recuperated Turboprop Engine
- Study on Numerical Simulation of Fouling in Compressor Rotor
- Effects of Non-Uniform Inlet Temperature Distribution on High-Pressure Turbine Blade Loading
- Numerical Parametric Studies of Laminar Flame Structures in Opposed Jets of Partially Premixed Methane-Air Streams
Articles in the same Issue
- Masthead
- Structural Analysis and Optimization of a Composite Fan Blade for Future Aircraft Engine
- Fuel Consumption Reduction and Weight Estimate of an Intercooled-Recuperated Turboprop Engine
- Study on Numerical Simulation of Fouling in Compressor Rotor
- Effects of Non-Uniform Inlet Temperature Distribution on High-Pressure Turbine Blade Loading
- Numerical Parametric Studies of Laminar Flame Structures in Opposed Jets of Partially Premixed Methane-Air Streams