Development of Semi-Interface Motorcycle Simulator (SiMS)

 
 
 
  • Abstract
  • Keywords
  • References
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  • Abstract


    Recently, studies concerning motorcycle have been an overwhelming area of research interest. As an alternative to the real world assessment, researchers have utilized motorcycle simulator as a workstation to conduct studies in the motorcycle niche area. This paper deal with the development of a new motorcycle simulator named Semi-Interface Motorcycle Simulator (SiMS). Combination of Computer Aided Design (CAD) and Finite Element Analysis (FEA) software made it possible to design and simulates the motorcycle simulator’s conceptual design before being fabricated. The SiMS setup not only provides a near-to-real and immerse motorcycle riding experience on a super sport motorcycle model, but it also allows safer high speed motorcycle simulations to be conducted in a controlled environment that is portable and ergonomically easier to transport to various venues.

     

     


  • Keywords


    Counter-steering; Motorcycle; Semi-interface; Simulator

  • References


      [1] H. Arioui, L. Nehaoua, S. Hima, N. S guy, and S. Espie , Mechatronics, Design, and Modeling of a Motorcycle Riding Simulator, IEEE/ASME Transactions on Mechatronics, 13 (2010) 805-818.

      [2] W. M. S. W. Fauzi, A. R. Omar, R. Jaafar, M. I. N. Ma’arof, and H. Rashid, Motorcycle Cockpit Design Classification: CODEC System, Jurnal Teknologi, 76 (2015).

      [3] A. R. Omar, W. M. S. W. Fauzi , R. Jaafar, M. I. N. Ma’arof, & H. Rashid, A Review on Enhancing Human-Machine-Environment Interface for Postura MotergTM, Jurnal Teknologi, vol. 76 (2015) 21-25.

      [4] L. I. C. Sàrl and Villars-sous-Yens, Global Status Report on Road Safety Switzerland, (2013).

      [5] G. Murali, S. Gupta, and D. Singh, Pillion riders beware: Motorcycle fire following road side accident – An autopsy case report, Egyptian Journal of Forensic Sciences (2016).

      [6] Ministry of Transport, Transport Statistics Malaysia, (2014).

      [7] L. Nehaoua, H. Arioui, and S. Mammar, Review on single track vehicle and motorcycle simulators, presented at the 19th Mediterranean Conference on Control and Automation, Aquis Corfu Holiday Palace, Corfu, Greece, (2011).

      [8] V. Cossalter, R. Lot, M. Massaro, and R. Sartori, Development and Testing of Assistant Rider Systems with the UNIPD Motorcycle Riding Simulator, in XIX Congresso Aimeta Associazone Italiana di Meccanica Teorica Applicata, Italy, (2009) 24.

      [9] L. Nehaoua, S.Hima, H.Arioui, N.Séguy, and S.Espié, Design and modelling of a new motorcycle riding simulator, in 2007 IEEE American, American Control Conference, New York City, NY, (2007) 76-181.

      [10] T. Kishida and I. Kageyama, A Study on Riding Simulator for Motorcycle, in DSC 2007 North America, Iowa City, (2007).

      [11] Honda SMARTrainer. website: http://www.motorcycle.com/how-to/honda-smartrainer-86756.html (accessed 20.7.2015)

      [12] W. M. S. W. Fauzi, A. R. Omar, & H. Rashid, Enhancement of Postura MotergoTM: From an Ergonomic Motorcycle Test Rig to a Full-Scale Simulator, Journal of Mechanical Engineering, SI 4(4) (017) 43-59.

      [13] K. Nagesh, I. Prawit, & M. Farrokh, Design through selection: a method that works. Design Studies, 6(2) (1985) 91-106.

      [14] A. Thakker, J. Jarvis, M. Buggy, & A. Sahed, 3DCAD conceptual design of the next-generation impulse turbine using the Pugh decision-matrix. Materials & Design, 30(7) (2009) 2676-2684.


 

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Article ID: 22504
 
DOI: 10.14419/ijet.v7i4.27.22504




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