TY - JOUR
T1 - Temperature prediction of rolling tires by computer simulation
AU - Lin, Yeong Jyh
AU - Hwang, Sheng Jye
N1 - Funding Information:
The authors wish to express their appreciation to Kenda Rubber Industrial Corporation in Yuan-Lin, Taiwan, for assistance for experimentation. We also thank Professors Huei-Huang Lee, Durn-Yuan Huang, and Hok-Shing Liu for their discussion and the manuscript preparation of this paper. Thanks are also due to the Industrial Development Bureau, Ministry of Economic Affairs, Taiwan, for their financial support.
PY - 2004/11/15
Y1 - 2004/11/15
N2 - A numerical procedure has been applied for investigating the temperature distribution in a smooth tread bias tire of a light truck, operated under different speeds, pneumatic pressures, and loading conditions. Prior to simulation by the finite element analysis, two separate sets of testing, namely dynamic mechanical testing and material testing, have been conducted in relation to the evaluation of hysteresis (H) and total strain energy (USed), respectively. Hysteresis loss energy is given as (H × Used) and considered to relate directly to heat generation rate. Temperature rise is assumed to be due to the energy dissipation from periodic deformation. This dissipation of energy may be equated to be the primary heat generation source. Hysteresis energy loss is used as a bridge to link the strain energy density to the heat source in rolling tires; temperature distribution of rolling tires may be obtained by the steady-state thermal analysis. The above procedure has been shown to facilitate the simulation of the temperature distribution in the rolling tire. An efficient computational process is being introduced to decrease the time for coupled 3D dynamic rolling simulation of tire. Temperature rise under different conditions is discussed with reference to the results of other published studies.
AB - A numerical procedure has been applied for investigating the temperature distribution in a smooth tread bias tire of a light truck, operated under different speeds, pneumatic pressures, and loading conditions. Prior to simulation by the finite element analysis, two separate sets of testing, namely dynamic mechanical testing and material testing, have been conducted in relation to the evaluation of hysteresis (H) and total strain energy (USed), respectively. Hysteresis loss energy is given as (H × Used) and considered to relate directly to heat generation rate. Temperature rise is assumed to be due to the energy dissipation from periodic deformation. This dissipation of energy may be equated to be the primary heat generation source. Hysteresis energy loss is used as a bridge to link the strain energy density to the heat source in rolling tires; temperature distribution of rolling tires may be obtained by the steady-state thermal analysis. The above procedure has been shown to facilitate the simulation of the temperature distribution in the rolling tire. An efficient computational process is being introduced to decrease the time for coupled 3D dynamic rolling simulation of tire. Temperature rise under different conditions is discussed with reference to the results of other published studies.
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U2 - 10.1016/j.matcom.2004.07.002
DO - 10.1016/j.matcom.2004.07.002
M3 - Article
AN - SCOPUS:8344270168
SN - 0378-4754
VL - 67
SP - 235
EP - 249
JO - Mathematics and Computers in Simulation
JF - Mathematics and Computers in Simulation
IS - 3
ER -