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GSP Related Publications

TERTS Technical Paper
(current version: NLR-TP-2002-069 - PRE-RELEASE)

NLR's 'Turbine Engine Real-Time Simulator' (TERTS) is a component-based real-time modelling environment for gas turbines derived from GSP. TERTS is a powerful real-time tool for analysis of effects of malfunctions of control systems and other sub-systems on performance in pilot-in-the-loop simulations. TERTS is implemented in the Matlab-Simulink environment, offering excellent means to develop separate component and subsystem (especially control system) models. From Simulink, C-code can be generated for direct implementation of the model in NLR's National Simulation Facility NSF.

The TERTS Technical Paper titled "TERTS, a Generic Real-Time Gas Turbine Simulation Environment" was presented as ASME-2001-GT-446 at the ASME Turbo Expo 2001, 4-7 June 2001 in New Orleans, Louisiana, USA, and gives a comprehensive description of the TERTS environment and an illustrative example of an afterburning turbofan.

Integrated Lifing Analysis Paper
(current version: NLR-TP-2000-049 - February 2000)

NLR has developed a method to predict gas turbine component life based on analysis of engine performance. Engine performance history is obtained from in-flight monitored engine parameters and flight conditions, and processed off-line by a combination of tools. Besides GSP as comprehensive thermodynamical engine system model, this combination includes models for heat transfer, thermal load, mechanical load and life consumption. Due to the relative high inaccuracy of the life consumption model component life can only be predicted relative to a reference life.

The Integrated Lifing Analysis Paper titled "Integrated Lifing Analysis Tool for Gas Turbine Components" was presented as ASME-2000-GT-646 at the ASME Turbo Expo 2000, 8-11 May 2000 in Munich, Germany, and gives a comprehensive description of the application of GSP in an integrated tool. The tool is demonstrated with an analysis of deterioration effects on the life consumption of the F100PW220 engine 1st stage LPT rotor blade during a recorded RNLAF F-16 mission.