Professor of School of Engineering, Design and Built Environment, Western Sydney University, Australia. His research interests cover Industry 4.0, Additive Manufacturing, Advanced Engineering Materials and Structures (Metals and Composites), Multi-scale Modelling of Materials and Structures, Metal Forming and Metal Surface Treatment.
Abstract—In an event of a rollover of any vehicle , there are fatal injuries to the driver and passenger.
Regulation & standards for FMVSS 216 and ECE R29 takes into the tests the cabin for roof
strength. The roof strength is done is two ways either by quasi static or dynamic. This dissertation
focuses on the rollover phenomenon by the quasi static approach. There is very little difference
in results between quasi static and dynamic rollover. An un laden truck is used to simulate the
rollover. A side platen is impacted to simulate the phase-1 of the rollover. Energy depending on
the mass of the vehicle is imparted in phase-1. Phase I will end once this energy is completely
absorbed by the cab. The phase-1, the cab mounts play an important role as the complete load
is transferred to the frame . the cab mounts has a tendency to fail in this phase. In phase II the
truck axle weight is given the load to the cab. Per FMVSS 216 and ECE R29 the load is ramped
to 105% of the actual load. A 50th percentile dummy is used to check the intrusion of the cab into
the survival space. Force versus displacement is plotted to analyze the strength of the cab.
Energy plots will the component which has absorbed the maximum energy. The strain plots of
the roof, back panel, floor, cab mounts are plotted and analyzed. After this whole exercise the
cab is predicted to pass FMVSS216 or ECE R29 to have enough strength to withstand a rollover
Index Terms—Roof Strength analysis, Quasi static approach, Dynamic rollover
Cite: Daniel Esaw* and A G Thakur, "Roof Strength Analysis of a Truck in the Event of a Rollover," International Journal of Mechanical Engineering and Robotics Research, Vol. 3, No. 3, pp. 802-810, July 2014.
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