Simulation of a Control System for an Adaptive Suspension System for Passenger Vehicles
In the process to cope with the challenges faced by the automobile industry in providing ride comfort, the electronics and control systems play a vital role. The control systems in an automobile monitor various parameters, controls the performances of the systems, thereby providing better handling characteristics. The automobile suspension system is one of the main systems that ensure the safety, stability and comfort of the passengers. The system is solely responsible for the isolation of the entire automobile from harmful road vibrations. Thus, integration of the control systems in the automobile suspension system would enhance its performance. The diverse road conditions of India demand the need of an efficient suspension system which can provide optimum ride comfort in all road conditions. For any passenger vehicle, the design of the suspension system plays a very important role in assuring the ride comfort and handling characteristics. In recent years, the air suspension system is preferred over the conventional suspension systems to ensure ride comfort. In this article, the ride comfort of the adaptive suspension system is compared with that of the passive suspension system. The schema is created in MATLAB/Simulink environment. The system is controlled by a proportional integral differential controller. Tuning of the controller was done with the Particle Swarm Optimization (PSO) algorithm, since it suited the problem best. Ziegler-Nichols and Modified Ziegler-Nichols tuning methods were also tried and compared. Both the static responses and dynamic responses of the systems were calculated. Various random road profiles as per ISO 8608 standard are modelled in the MATLAB environment and their responses plotted. Open-loop and closed loop responses of the random roads, various bumps and pot holes are also plotted. The simulation results of the proposed design are compared with the available passive suspension system. The obtained results show that the proposed adaptive suspension system is efficient in controlling the maximum over shoot and the settling time of the system is reduced enormously.
Digital Object Identifier (DOI): doi.org/10.5281/zenodo.1129710Procedia APA BibTeX Chicago EndNote Harvard JSON MLA RIS XML ISO 690 PDF Downloads 795
 Hess, S., "Automobile Riding-Comfort" SAE Transactions, 1924.
 Broulhiet, G., "Independent Wheel Suspension" SAE Transactions, Vol.33, 1933.
 Maurice Olley, “Independent wheel suspension – its whys and wherefores” SAE Transactions, Vol.34, 1934.
 Bodeau, A., Bollinger, R., and Lipkin, L., "Passenger-Car Suspension Analysis" SAE Transactions, Vol. 64, 1956.
 J.J. Fuentes, H.J. Aguilar, J.A. Rodrı´Guez, E.J. Herrera, “Premature Fracture In Automobile Leaf Springs”, Engineering Failure Analysis 16 (2009) 648–655.
 Dipendra Kumar Roy And Kashi Nath Saha, “Nonlinear Analysis Of Leaf Springs Of Functionally Graded Materials”, Procedia Engineering 51 ( 2013 ) 538 – 543
 Y.S. Kong, M.Z. Omar, L.B. Chua, S. Abdullah, ”Fatigue Life Prediction Of Parabolic Leaf Spring Under Various Road Conditions”, Engineering Failure Analysis 46 (2014) 92–103.
 Mahmut Durus, Levent Kirkayak, Aykut Ceyhan, Kagan Kozan, “Fatigue Life Prediction of Z Type Leaf Spring and New Approach to Verification Method”, Procedia Engineering 101 (2015) 143 – 150.
 D. Hrovat, “Survey of Advanced Suspension Developments and Related Optimal Control Applications”, Automatica, Vol.33, No. 10, 1997.
 Werner Schiehlen, Igor Iroz, “Uncertainties in Road Vehicle Suspensions”, Procedia IUTAM 13 (2015) 151 – 159.
 Zengkang Gan, Andrew J. Hillis, Jocelyn Darling, “Adaptive Control of an Active Seat for Occupant Vibration Reduction”, Journal of Sound and Vibration 349 (2015) 39–55.
 Katsuya Toyofuku, Chuuji Yamada, Toshiharu Kagawa, Toshinori Fujita, “Study on dynamic characteristic analysis of air spring with auxiliary chamber”, JSAE Review 20 (1999) 349}355.
 Ouyang Qing and Shi Yin, “The Nonlinear Mechanical Properties of an Airspring”, Mechanical Systems and Signal Processing (2003) 17(3), 705–711.
 I. Hostens, K. Deprez, H. Ramon, “An Improved Design of Air Suspension for Seats of Mobile Agricultural Machines”, Journal of Sound and Vibration 276 (2004) 141–156.
 Feng-Xiang Lia, Wei-Min Yang and Yu-Mei Ding, “Simulation of Static Test of Air-spring”, Advanced Materials Research Vols 11-12 (2006) pp 713-716.
 Viktor Gavriloski, Jovana Jovanova, Goce Tasevski, Marjan Djidrov, “Development of a New Air Spring Dynamic Model”, 2014 FME Transactions, Vol 42, 305 – 310.
 Haider J. Abid, Jie Chen, and Ameen A. Nassar, “Equivalent Air Spring Suspension Model for Quarter-Passive Model of Passenger Vehicles”, Hindawi Publishing Corporation, International Scholarly Research Notices, Volume 2015, Article ID 974020.
 Senthilkumar Mouleeswaran, “Design and Development of PID Controller Based Active Suspension System for Automobiles”, PID Controller Design Approaches – Theory, Tuning and Application to Frontier Areas, ISBN 978-953-51-0405-6, 2012.
 Wissam H. Al-Mutar, Turki Y. Abdalla, “Quarter-car Active Suspension System Control Using PID Controller Tuned by PSO”, Iraq J. Electrical and Electronic Engineering, Vol. 11, No. 2, 2015.
 The Vibrations Induced by Surface irregularities in road pavements – a MATLAB approach”, European Transport Research Review (2014) Vol. 6.