This study proposed a new efficient method to investigate tracked vehicle gear transmission system dynamics applying Finite element theory and multi-body dynamics. Torsional excitation was simulated based on an engine dynamic model by considering flexibility of crankshaft, maximum fire pressure and variable inertia. Gear mesh stiffness coefficient, mesh error excitation, bearing dynamic stiffness coefficient and damping coefficient were numerically calculated. The virtual prototype model of power train system including all aforementioned excitations was constructed. Dynamic responses of transmission shaft working with multi-source excitations were analyzed.

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bearing dynamic stiffness coefficient power train tracked vehicle gear transmission system dynamics engine dynamic model finite element theory transmission shaft method virtual prototype model torsional excitation variable inertia gear mesh stiffness mesh error flexibility of crankshaft maximum fire pressure damping coefficient

Hui Liu,Shengping Fu,Changle Xiang,.Multi-Body Dynamics Simulation of A Tracked Vehicle Power Train in Consideration of Multi-Source Excitations. 4 (3),.

Hui Liu,Shengping Fu,Changle Xiang,"Multi-Body Dynamics Simulation of A Tracked Vehicle Power Train in Consideration of Multi-Source Excitations" 4

Hui Liu,Shengping Fu,Changle Xiang,"Multi-Body Dynamics Simulation of A Tracked Vehicle Power Train in Consideration of Multi-Source Excitations"