Impact Collision Analysis for frontal impact of vehicle using Finite Element Analysis simulation
Author
Vikas S. Avhad, Dr.T.Y.Badgujar, Prof. R.R. Chaudhari
Abstract
Automobile sector is growing rapidly due to new technological inventions. Apart from this, there has been a significant increase in accidents and road accidents. The main goal is to design and create an energy-absorbing crash box that is affordable, easy to manufacture, ecologically friendly, and suitable for installation in car bumpers to improve safety. The main goal of the work was to create bumpers that could absorb impact energy in the case of a collision. The use of bio-composites made from natural plant fibers is increasing day by day. Various sizes of absorbers can be manufactured and installed in the bumper. Materials used here for energy absorption are jute fiber and bamboo fiber.
Keywords
Energy Absorber, Jute, Bamboo, Impact Collision
Full Text:
References
|
1] |
Otte, D.; Haasper, C, “Characteristics on fractures of tibia and fibula in car impacts to pedestrians and bicyclists – influences of car bumper height and shape”, Association for the Advancement of Automotive Medicine. Association for the Advancement of Automotive Medicine · , A Research Gate Publication, February 2007 |
|
2] |
Yong Han, Jikuang Yang, Koji Mizuno & Yasuhiro Matsui, “Effects of Vehicle Impact Velocity, Vehicle Front-End Shapes on Pedestrian Injury Risk”, Journal for Traffic Injury Prevention, Published by Taylor & Francis Informa Ltd, 30 Aug 2012. |
|
3] |
Guibing Li, Mathew Lyons , Bingyu Wang , Jikuang Yang, Dietmar Otte, |
|
4] |
Bingyu Wang,, Jikuang Yang,, Dietmar Otte, “The effects of Vehicle Front Design Variables and Impact Speed on Lower Extremity Injury in Pedestrian collisions using In-depth Accident Data”, Eighth International Conference on Measuring Technology and Mechatronics Automation, 2016. |
|
5] |
Rasoul Moradi, “Evaluation of the kinematics and injury potential to different sizes of pedestrians impacted by a utility vehicle with a frontal guard”, International Journal of Crashworthiness, Published by Taylor & Francis Informa Ltd, 2011. |
|
6] |
A.Siva Kumar, “Experimental Investigations with Crush Box Simulations for Different Segment Cars using LS-DYNA”, International Journal of Current Engineering and Technology, International Conference on Advances in Mechanical Sciences, 2014. |
|
7] |
Y. FUJII, “A method for determining the impact force in crash testing”, Journal of Mechanical Systems and Signal Processing, Published by Academic Press, Volume 14, Isssue 6, 2010. |
|
8] |
H. Naderpour, “A new model for calculating impact force and energy dissipation based on the CR-factor and impact velocity”, Sharif University of Technology, A Research Gate Publication, 2014. |
|
9] |
Xiwu Zhou, “A Study of the Cumulative Impact Forces of Stainless Steel Reinforced Concrete Pier”, International Journal of Steel Structures, Springer Publication, 2019. |
|
10] |
A.V. Kireev, “Energy-regenerative Shock Absorber Mathematical Model”, International Conference on Industrial Engineering, Journal of Procedia Engineering, Else Vier Publication, Volume 206, 2017. |
|
11] |
Sagar P Dhamone, Dr Arun kumar P, “Advance Robotics Technology on Crash Analysis Automobile Bumper by Varying Suitable Input Parameter in Order to Control Energy Absorption for Improve Passenger Car Safety Aspect”, International Research Journal of Engineering and Technology , Volume: 05 Issue: 07, 2018. |
|
12] |
Gabriel Jiga, “Material and shape crash-box influence on the evaluation of the impact energy absorption capacity during a vehicle collision”, Journal of Ciência & Tecnologia dos Materiais, Else Vier Publication, Volume 28, 2016. |
|
13] |
Samer Fakhri Abdulqadir, “Design a new energy absorber longitudinal member and compare with S-shaped design to enhance the energy absorption capability”, Alexandria Engineering Journal, Else Vier Publication, Volume 57, 2018. |
|
14] |
Rahul Nair, “Design and optimization of automotive energy absorber structure withfunctionally graded material”, Journal of Materials Today: Proceedings, Else Vier Publication, Volume 5, 2018. |
|
15] |
RĤžiþka Milan, “Development of composite energy absorber”, Journal of Modelling of Mechanical and Mechatronic Systems, Else Vier Publication, Volume 96, 2018. |
|
16] |
Fuhao Mo, “Design of a Conceptual Bumper Energy Absorber Coupling Pedestrian Safety and Low-Speed Impact Requirements”, Journal of Applied Bionics and Biomechanics, Hindawi Publications, 2018. |
|
17] |
Nikola Schmidová, “Development of Adaptable CFRP Energy Absorbers for Car Crashes”, Journal for Materials Today: Proceedings, Else Vier Publication, Volume 05, 2018. |
|
18] |
Guangjun Gao, “Experimental investigation of an active–passive integration energy absorber for railway vehicles”, Journal of Thin-Walled Structures, Else Vier Publication, Volume 117, 2017. |
|
19] |
N M Kusaseh et.al. “Flexure and impact properties of glass fiber reinforced nylon 6-polypropylene composites”, IOP Conf. Series: Materials Science and Engineering, Volume 319, 2018. |
|
20] |
Md Nuruddin, “impact behavior of e-glass/carbon hybrid fiber”, The Composites and Advanced Materials Expo, CAMX Conference Proceedings, 2015. |
|
|
|