一种新型高精度空间倾斜台的设计与分析

Jun Jiang, Qiang Zhang, Jikui Liu, Yuanzi Zhou, Wen Wen, Wei Liu, Xuepeng Liu
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引用次数: 0

摘要

倾斜阶段,也被称为快速转向镜,是许多微调应用的关键组件。然而,高性能的倾斜台在期望的方向上移动时经常遇到寄生误差的问题。针对这一问题,提出了一种基于柔性遥控运动中心机构的新型倾斜台的设计与分析。实验证明,该机构具有较小的寄生运动和较高的指向精度,同时可以悬挂较大的载荷(镜像)。本文阐述了该平台的设计细节,并进行了理论分析和数值模拟,对设计进行了优化和验证。结果表明,所提出的倾斜级在两个轴的2mrad范围内可以驱动分辨率为3nrad、带宽为300Hz的2英寸有效载荷。拟议的阶段与大多数空间应用的要求非常匹配。
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Design and analysis of a novel tip-tilt stage with high precision for space applications
Tip-tilt stage, also known as fast steering mirror, is a key assembly for many fine tuning applications. However, high performance tip-tilt stage often encounters the problem of parasitic error when moving in the desired directions. To address this problem, this paper presented the design and analysis of a novel tiptilt stage based on compliant remote center of motion mechanism. The proposed mechanism is proven to have less parasitic motion and with better pointing accuracy, meanwhile can suspend a relatively large payload (mirror). In this paper, the design details of the stage is elaborated, both theoretical analysis and numerical simulations are conducted to optimize and validate the design. The results indicate that the proposed tip-tilt stage can drive a 2-in size payload with 3nrad resolution and 300Hz bandwidth within 2mrad range in both axes. The proposed stage matches well with the requirements of most space applications.
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