Title :
Nonlinear numerical simulation of roll-over protective structure of cabs in underground engineering services vehicles
Author :
Zhao, Zhiguo ; Si, Chuansheng
Author_Institution :
Huaiyin Inst. of Technol., Huai´´an, China
Abstract :
In order to avoid the casualties when the underground engineering services vehicles overturned, and improve vehicles´ reliability and car safety at work, it is necessary for the cabs to use the roll-over protective structure (ROPS). It requires that the ROPS should have sufficient lateral stiffness to prevent deformation, while also can absorb some energy. The nonlinear finite element model of the FW-6 services vehicle´s roller safety-cab ROPS was established with the elastic-plastic theory and the finite element nonlinear analysis method. And the lateral, vertical and longitudinal load forces were loaded to the model step-by-step. The results indicated that the energy absorption as the cab´s deformation had achieved the international requirement, and the ROPS structural component did not trespass into deflection-limiting volume (DLV). It met the requirements of ISO 3471 and ISO 3164. This method provides some reference for the design of underground vehicle´s safety cab.
Keywords :
automotive engineering; elastoplasticity; finite element analysis; reliability; road safety; FW-6 services vehicle roller safety; ISO 3164; ISO 3471; ROPS structural component; car safety; deformation; elastic-plastic theory; energy absorption; finite element nonlinear analysis method; nonlinear finite element model; nonlinear numerical simulation; roll-over protective structure; underground engineering service vehicle; underground vehicle safety cab; vehicle reliability; Absorption; Analytical models; Finite element methods; ISO standards; Loading; Stress; Vehicles; Cabs; Nonlinear Analysis; Roll-Over Protective Structure; Underground Engineering Services Vehicles;
Conference_Titel :
Mechanic Automation and Control Engineering (MACE), 2011 Second International Conference on
Conference_Location :
Hohhot
Print_ISBN :
978-1-4244-9436-1
DOI :
10.1109/MACE.2011.5987215