Research on Synchronization Control Algorithm of Gantry-Type Motion Platform Based on IC Package

Yunbo He, Zhanchao Li, Jian Gao, C. Cui
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引用次数: 1

Abstract

As global semiconductor gradually develop into the post-Moore era, the status of microelectronic packaging technology in the IC industry is becoming increasingly prominent, and the requirements for high precision and high speed of microelectronic packaging equipment are also increasing. The gantry type motion platform is widely used in chip packaging. However, due to the mechanical coupling of the beam between the two linear motors of the gantry type motion platform, the system positioning accuracy and synchronization performance are seriously affected. In this paper, a self-made gantry motion platform is taken as the research object, and a cross-coupling synchronization algorithm based on fuzzy feedforward controller is proposed to realize the synchronous control of the system, including a fuzzy feedforward controller and a compensation controller based on cross-coupling principle. The cross-coupling controller takes the speed difference of two linear motors as the input signals, which compensates to the speed loop after being adjusted by the PI controller. The simulation results show that the crosscoupling synchronization algorithm based on fuzzy feedforward control can ensure the positioning accuracy, the response speed is faster, the anti-interference ability is stronger, and the synchronous follow performance is good, which basically meets the high-speed and high-precision requirements of the microelectronic packaging industry.
基于IC封装的龙门式运动平台同步控制算法研究
随着全球半导体逐渐发展进入后摩尔时代,微电子封装技术在IC产业中的地位日益突出,对微电子封装设备的高精度、高速度要求也越来越高。龙门式运动平台广泛应用于芯片封装。然而,由于龙门式运动平台的两个直线电机之间的梁的机械耦合,严重影响了系统的定位精度和同步性能。本文以自制的龙门运动平台为研究对象,提出了一种基于模糊前馈控制器的交叉耦合同步算法来实现系统的同步控制,包括模糊前馈控制器和基于交叉耦合原理的补偿控制器。交叉耦合控制器以两台直线电机的转速差作为输入信号,经PI控制器调节后补偿到转速环。仿真结果表明,基于模糊前馈控制的交叉耦合同步算法能够保证定位精度,响应速度更快,抗干扰能力更强,同步跟随性能好,基本满足微电子封装行业对高速、高精度的要求。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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