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Far East Journal of Mechanical Engineering and Physics

Published

A conceptual model for supplement braking systems in automobiles for demanding circumstances

Published in February 23, 2026 (Vol. 4, Issue 1, 2026)

A conceptual model for supplement braking systems in automobiles for demanding circumstances - Issue cover

Abstract

Supplement braking systems serve as backup or enhancement mechanisms when primary hydraulic brakes face extreme conditions like brake fade, hydraulic failure, or extended heavy braking demands (mountain descents, heavy loads, emergency scenarios). Since the brake system is one of the most crucial control systems in cars, it is not an exception to the periodic advancements in technology. Driving is a complex task that requires the correlation of numerous cognitive aspects, such as observing the state of the road, recognizing it in light of the circumstances, and making a quick and appropriate decision. In addition to the foot-operated brakes used in the current models of automobiles, we suggest an additional mechanism that a co-passenger sitting next to the driver can use to apply the brakes when necessary. The Supplement Braking System (SBS) mechanism, which would be used in a variety of demanding scenarios to boost passenger and vehicle safety, is conceptually modeled and developed in this study. The SBS is primarily useful when the driver is unable to manage the vehicle because of illness, such as when driving uphill and it gives the co-passenger a chance to reduce the causation. This conceptual model prioritizes safety through redundancy while maintaining vehicle controllability under extreme braking demands. The system would require extensive testing and regulatory approval before implementation.

References

  1. [1]Giulia Sandrini, Marco Gadola and Daniel Chindamo, Efficient regenerative braking strategy aimed at preserving vehicle stability by preventing wheel locking, Transportation Research Procedia 70 (2023), 28-35.
  2. [2] Nickolay Podoprigora, Viktor Dobromirov, Alexander Pushkarev and Vladimir Lozhkin, Methods of assessing the influence of operational factors on brake system efficiency in investigating traffic accidents, Transportation Research Procedia 20 (2017), 516-522.
  3. [3] S. Pasquale, Matteo d’Amore, A. B. Maria, S. Rolando and F. Anita, Experimental framework for simulators to study driver cognitive distraction: brake reaction time in different levels of arousal, Transportation Research Procedia 14 (2016), 4410-4419.
  4. [4]S. Vytenis and S. Edgar, Research of the vehicle brake testing efficiency, Procedia Engineering 134 (2016), 452-458.
  5. [5]Mulik Vishal Shamrao, Chavan Akshay Shivaji, Chavan Akshaykumar Nanaso and Bagade Ravindra Jalindar, Review paper on ignition switch operated parking brake system, Int. J. of Engineering Science and Computing 7(4) (2017).
  6. [6] Nilanjan Patra and Kalyankumar Dutta, Observer based road-tire friction estimation for slip control of braking system, Procedia Engineering 38 (2012), 1566-1574.

Authors (4)

Eriki Ananda Kumar

Professor

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Ganta Suresh

Professor

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Parmesh Lal Jethi

Professor

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Harun Mindivan

Professor

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Article Information

Article ID:
MEP140001
Paper ID:
MEP-01-000001
Pages:
1-9
Published Date:
2026-03-16

Article Impact

Views:5,374
Downloads:2,374

How to Cite

Ananda, E., & Suresh & Lal, P. & Mindivan (2026). A conceptual model for supplement braking systems in automobiles for demanding circumstances. Far East Journal of Mechanical Engineering and Physics, 4(1), 1-9. https://mep.scholarjms.com/articles/1

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