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A Methodology for Determining Static Mode Shapes of a Compliant Mechanism Using the Pseudo-Rigid-Body Model Concept and the Degrees-Of-Freedom Analysis

机译:使用伪刚性模型概念和自由度分析确定符合机制的静态模式形状的方法

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Traditionally, the deflected configuration of compliant segments is determined through rigorous mathematical analysis using Newtonian mechanics. Application of this approach in evaluating the deformed configuration of compliant mechanisms, containing a variety of segment types, becomes cumbersome. This paper introduces a methodology to determine the possible deflected configuration(s) of a compliant mechanism, for a given set of load and/or displacement boundary conditions. The methodology utilizes the principle of minimum potential energy, in conjunction with the degrees-of-freedom analysis and the pseudo-rigid-body model concept. The static mode shape(s) of compliant segments are integrated in identifying the possible deflected configuration(s) of a given compliant mechanism. The methodology facilitates the in situ determination of the possible deformed configuration(s) of the compliant mechanism and its constituent segments. This, in turn, assists in the important task of identifying an appropriate pseudo-rigid-body model for the design and analysis of a compliant mechanism. The proposed methodology is illustrated with examples, and supported with experimental validation.
机译:传统上,通过使用牛顿力学的严格数学分析确定柔顺段的偏转配置。这种方法在评估含有各种分段类型的柔顺机构的变形配置时的应用变得麻烦。本文介绍了一种方法,用于确定符合机制的可能偏转的配置,用于给定的一组负载和/或位移边界条件。该方法结合自由度分析和伪刚性模型概念来利用最小势能的原理。柔性段的静态模式形状被集成在识别给定兼容机制的可能偏转的配置。该方法有助于原位测定柔顺机构的可能变形配置及其组成部分。反过来,这有助于识别适当的伪刚体模型的重要任务,以实现兼容机制的设计和分析。所提出的方法由示例说明,并支持实验验证。

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