The paper deals with the modelling of a passenger car seat suspension system. Currently, vehicle safety and ride comfort are one of the most important factors of vehicle design. This article analyses a mathematical model of the passenger car seat suspension system. Furthermore, experimental measurements of the passenger car seat suspension system are performed. Utilizing the experimental data, model parameters are identified. From the chosen mathematical model a simulation model in constructed in Matlab is designed. In this simulation, the force-velocity and force-displacement characteristics of the passenger car seat suspension system are described. Finally, evaluation of simulated damper characteristics with the characteristics form measured data are performed.
 M. Ersoy, B. Heissing. Chassis Handbook: Fundamentals, Driving Dynamics, Components, Mechatronics, Perspectives. -Berlin: MercedesDruck, 2011. 616 p. ISBN 978-3-8348-0994-0
 L. Morello, L. Rossini, G. Pia, A. Tonolli. The automotive body, Volume 1: Components design. Springer, 2011, 665 p., ISBN 978-94-007-0513-5
 B. F. Spencer Jr., S. J. Dyke, M. K. Sain, J. D. Carlson. Phenomenological Model of a Magnetorheological Damper. Journal of Engineering Mechanics, 1997, 230-238. ISSN 0733-9399.
 M. J. Griffin, E.M. Whitman: Duration of whole-body vibration exposure: Its effect on comfort: Research report, 1976, 339 p.
 M. Pope, A. Magnusson. Guidelines for whole-body vibration health surveillance: Research report, 2002, 131 p.
 V. Ferencey, J. Madarás, M. Bugár. Modelling of Energy and Powertrain System of the Electric Vehicle. In: Transport Means 2012: 16th International Conference. Kaunas, Lithuania, October 25-26, 2012. Kaunas: University of Technology, 2012. 73 - 76. ISBN 1822-296X.
 R. Jančo, L. Écsi, P. Élesztős. FSW Numerical Simulation of Aluminium Plates by SYSWELD - Part II. Journal of Mechanical Engineering- Strojnícky časopis, 2016 (66), No. 2, 29 - 36., ISSN 2450-5471.