透镜滚销柔性支撑结构的优化设计

Jun Li, Yi Chen
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引用次数: 0

摘要

透镜滚销柔性支撑结构的刚度要求与尺寸、重量存在相对矛盾。针对这一矛盾,建立了滚针柔性单元的力学模型,运用笛卡尔定理对滚针柔性单元的径向和切向刚度进行了理论推导,并用有限元法进行了验证。然后,基于刚度公式,构建了具有几何构型参数的优化设计模型,并将优化设计模型应用于直径为400mm的透镜。结果表明,仿真结果与理论设计基本一致。最后,在优化设计的基础上,对圆滚销柔性结构进行了改进设计,并进行了有限元分析。结果表明,改进后的设计使其重量降低了10%,最大接触应力降低了10%。
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Optimization Design of Lens Roll-Pin Flexible Support Structure
There is a relative contradiction between the stiffness requirement and the size and weight of the lens roll-pin flexible support structure. Aim to solve this contradiction, the mechanical model of the roll-pin flexible element was established, and the radial and tangential stiffness of the roll-pin flexible element were theoretically deduced and verified by finite element method by using cartesian theorem. Then, based on the stiffness formula, the optimization design model with geometric configuration parameters was constructed, and the optimization design model was applied to a lens with a diameter of 400mm. The results showed that the simulation was basically consistent with the theoretical design. Finally, based on the optimized design, the improved design of the circular roll-pin flexible structure was carried out and the finite element analysis was completed. The results show that the weight of the improved design is reduced by 10%, the maximum contact stress is reduced by 10%.
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