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首页> 外文期刊>Journal of Adhesion Science and Technology: The International Journal of Theoredtical and Basic Aspects of Adhesion Science and Its Applications in All Areas of Technology >Modelling and analysis of the electrostatic adhesion performance considering a rotary disturbance between the electrode panel and the attachment substrate
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Modelling and analysis of the electrostatic adhesion performance considering a rotary disturbance between the electrode panel and the attachment substrate

机译:考虑电极板和附着基板之间旋转干扰的静电粘附性能的建模和分析

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摘要

In real-world applications of electrostatic adhesion technology, the electrostatic adhesion force decreases when the electrode panel slides or rotates relative to the attachment substrate due to an external disturbance. However, little work has been done to study this phenomenon. This paper presents a model and analysis method to evaluate the electrostatic adhesion performance considering a rotary disturbance between the electrode panel and the attachment substrate. First, dynamic variations of the electric fields for any point on the attachment substrate are analysed. Then the decrease in the electrostatic adhesion force is explained based on the analysis results and our previous work. The analysis results and explanations are experimentally validated on three different attachment substrates. The fundamental cause of the decrease in adhesion force is the loss of the lined layer polarization due to the rotary disturbance. The results provide a good explanation to the phenomenon and make the existing electrostatic adhesion theory more self-consistent.
机译:在静电粘合技术的实际应用中,当电极板由于外部干扰而相对于附接基板滑动或旋转时,静电粘合力减小。但是,研究这种现象的工作很少。本文提出了一种模型和分析方法,以评估考虑到电极面板和附着基板之间的旋转干扰的静电粘附性能。首先,分析附着基板上的任意点的电场的动态变化。然后根据分析结果和我们先前的工作来解释静电粘附力的降低。分析结果和说明在三种不同的附着基板上进行了实验验证。粘附力降低的根本原因是由于旋转扰动导致衬里层偏振的损失。结果为这种现象提供了很好的解释,并使现有的静电粘附理论更加自洽。

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