TY - GEN
T1 - Hybrid simulation of tracked vehicle suspension on real-time environment
AU - Kciuk, Sławomir
AU - Kielan, Paweł
AU - Mężyk, Arkadiusz
AU - Wilk, Krzysztof
N1 - Publisher Copyright:
© 2016 Trans Tech Publications, Switzerland.
PY - 2016
Y1 - 2016
N2 - The work presents simulation method of dynamic properties used as assistance in the construction process of suspension systems for high-speed tracked vehicles. Special consideration has been given to the real-time coupling of virtual models with the dynamic response of actual elastic-damping elements of the vehicles. An original design method has been proposed. The method is characterized by the fact that each of the design stages are not performed sequentially, but are parallel to each other and that at each level, mutual coupling between the tasks of the design process occurs. The proposed simulation method using the dSpace system is based on the integration of virtual environment such as LMS Virtual Lab or MATLAB/Simulink with the actual object such as a damper, by means of dedicated input/output devices operating in real time. The method developed in the work allowed for an extension of the classic co-simulations, that is, simulations in two coupled virtual environments, to include an actual component or, rather - its dynamic - often non-linear - characteristic, its response to excitation. The method developed in the work allowed for an extension of the classic co-simulations, that is, simulations in two coupled virtual environments, to include an actual component or, rather - its dynamic - often non-linear - characteristic, its response to excitation. The developed test method and the computer programs have been verified by means of experimental measurements of the dynamic characteristics of the actual object during test-ground tests and in the laboratory. The obtained results of the simulations and experiments allow to confirm the validity of the assumed thesis, which has been included in the summary.
AB - The work presents simulation method of dynamic properties used as assistance in the construction process of suspension systems for high-speed tracked vehicles. Special consideration has been given to the real-time coupling of virtual models with the dynamic response of actual elastic-damping elements of the vehicles. An original design method has been proposed. The method is characterized by the fact that each of the design stages are not performed sequentially, but are parallel to each other and that at each level, mutual coupling between the tasks of the design process occurs. The proposed simulation method using the dSpace system is based on the integration of virtual environment such as LMS Virtual Lab or MATLAB/Simulink with the actual object such as a damper, by means of dedicated input/output devices operating in real time. The method developed in the work allowed for an extension of the classic co-simulations, that is, simulations in two coupled virtual environments, to include an actual component or, rather - its dynamic - often non-linear - characteristic, its response to excitation. The method developed in the work allowed for an extension of the classic co-simulations, that is, simulations in two coupled virtual environments, to include an actual component or, rather - its dynamic - often non-linear - characteristic, its response to excitation. The developed test method and the computer programs have been verified by means of experimental measurements of the dynamic characteristics of the actual object during test-ground tests and in the laboratory. The obtained results of the simulations and experiments allow to confirm the validity of the assumed thesis, which has been included in the summary.
KW - Hardware in the loop
KW - Hybrid simulation
KW - Real-time environment
KW - Tracked vehicle
UR - https://www.scopus.com/pages/publications/84962053249
U2 - 10.4028/www.scientific.net/SSP.248.161
DO - 10.4028/www.scientific.net/SSP.248.161
M3 - Conference contribution
AN - SCOPUS:84962053249
SN - 9783038357698
T3 - Solid State Phenomena
SP - 161
EP - 168
BT - Active Noise and Vibration Control
A2 - Rączka, Waldemar
A2 - Sibielak, Marek
PB - Trans Tech Publications Ltd.
T2 - 12th Conference on Active Noise and Vibration Control Methods, MARDiH 2015
Y2 - 8 June 2015 through 11 June 2015
ER -