一类LTV运动系统的顺应性前馈方案

Nikolaos Kontaras, M. Heertjes, H. Zwart, M. Steinbuch
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引用次数: 4

摘要

在光刻应用中实现轻量级高性能运动系统,对致动器、放大器和冷却系统的要求更低。然而,轻量化设计的刚度降低带来了结构灵活性的影响,特别是当所谓的兴趣点不在固定位置时。例如,在暴露硅片时就是这种情况。为了处理结构柔性,提出了一种前馈控制器,该控制器结合了两个概念:(a)连续顺应补偿控制和(b)快速前馈控制。扩展到LTV运动系统的一个子类,所得到的控制器补偿了柔性结构的位置依赖和时变顺应性。所使用的柔度函数将使用偏微分方程(PDE)推导。仿真结果验证了该方法的有效性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A compliance feedforward scheme for a class of LTV motion systems
The implementation of lightweight high-performance motion systems in lithography applications imposes among others lower requirements on actuators, amplifiers, and cooling. However, the decreased stiffness of lightweight designs brings the effect of structural flexibilities to the fore especially when the so-called point of interest is not at a fixed location. This is for example the case when exposing a silicon wafer. To deal with structural flexibilities, a feedforward controller is proposed that combines two concepts: (a) continuous compliance compensation control and (b) snap feedforward control. Expanded to a subclass of LTV motion systems, the resulting controller compensates for the position-dependent and time-varying compliance of a flexible structure. The compliance function used will be derived using partial differential equations (PDE). The method is validated by simulation results.
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