Road-to-rig-to-desktop: Virtual development using real-time engine modelling and powertrain co-simulation

Author:

Andert Jakob1ORCID,Xia Feihong1,Klein Serge1,Guse Daniel2,Savelsberg Rene3,Tharmakulasingam Raul3,Thewes Matthias3,Scharf Johannes3

Affiliation:

1. Mechatronic Systems for Combustion Engines, Institute for Combustion Engines, RWTH Aachen University, Aachen, Germany

2. Institute for Combustion Engines, RWTH Aachen University, Aachen, Germany

3. FEV Europe GmbH, Aachen, Germany

Abstract

By front-loading of the conventional vehicle testing to engine test bench or even further forward to offline simulations, it is possible to assess a large variation of powertrain design parameters and testing manoeuvres in the early development stages. This entails a substantial cost reduction compared to physical vehicle testing and hence an optimisation of the modern powertrain development process. This approach is often referred to as road-to-rig-to-desktop. To demonstrate the potential of this road-to-rig-to-desktop methodology as a seamless development process, a crank angle–resolved real-time engine model for a turbocharged gasoline engine was built with the simulation tool GT-POWER®. The model was validated with measurement data from an engine test bench and integrated into a vehicle co-simulation, which also includes a dual clutch transmission, the chassis, the environment and the automated driver. The most relevant functions of the engine and the transmission control systems were implemented in a Simulink-based software control unit. To verify the engine model in the transient vehicle simulation, two 900-s time windows from a 2-h real driving emission test, representing urban and motorway conditions, are simulated using the developed co-simulation platform. The simulation results are compared with the respective vehicle measurement data. The fuel consumption deviation caused by the combustion engine model is within 5%. The transient system behaviour and the dominant engine operation points could be predicted with a satisfying accuracy.

Funder

ITEA 3

Deutsche Forschungsgemeinschaft

Publisher

SAGE Publications

Subject

Mechanical Engineering,Ocean Engineering,Aerospace Engineering,Automotive Engineering

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