汽车实用技术
汽車實用技術
기차실용기술
PRACTICAL TECHNOLOGY OF AUTOMOBILE
2011年
11期
21-23
,共3页
重型车桥%桥壳%有限元分析%拓扑优化%轻量化
重型車橋%橋殼%有限元分析%拓撲優化%輕量化
중형차교%교각%유한원분석%탁복우화%경양화
Heavy Axle%Housing%FEA%Topology Optimization%Lightweight
对某重型车桥桥壳在设计工况下的静强度性能进行了有限元分析,并对该桥壳结构进行了轻量化设计。采用拓扑优化方法,以初始设计作为优化的基结构,以重量最轻为目标函数,以结构的静强度性能为约束条件,进行了优化迭代计算。轻量化设计后,减轻了桥壳的重量,且轻量化结构满足强度要求。
對某重型車橋橋殼在設計工況下的靜彊度性能進行瞭有限元分析,併對該橋殼結構進行瞭輕量化設計。採用拓撲優化方法,以初始設計作為優化的基結構,以重量最輕為目標函數,以結構的靜彊度性能為約束條件,進行瞭優化迭代計算。輕量化設計後,減輕瞭橋殼的重量,且輕量化結構滿足彊度要求。
대모중형차교교각재설계공황하적정강도성능진행료유한원분석,병대해교각결구진행료경양화설계。채용탁복우화방법,이초시설계작위우화적기결구,이중량최경위목표함수,이결구적정강도성능위약속조건,진행료우화질대계산。경양화설계후,감경료교각적중량,차경양화결구만족강도요구。
Finite element analysis was performed on the static strength properties under design conditions of a heavy axle housing, and lightweight design was performed. Using topology optimization method, iterative calculations for optimization were performed, the original design was taken as the base structure of optimization, the lightest weight was taken as the objective function, the structural static strength properties was taken as the constraints. After the lightweight design, the housing weight was reduced, and the lightweight structure met strength requirements