Error Space Estimation of Three Degrees of Freedom Planar Parallel Mechanisms

Author:

Ding Jianzhong1,Lyu Shengnan23,Da Ting4,Wang Chunjie5,Chirikjian Gregory S.26

Affiliation:

1. School of Mechanical Engineering and Automation,Beihang University,Beijing 100191, Chinaemail: jianzhongd@buaa.edu.cn

2. Department of Mechanical Engineering,Johns Hopkins University,Baltimore, MD 21218;

3. School of Mechanical Engineering and Automation,Beihang University,Beijing 100191, Chinaemail: lvshengnan5@gmail.com

4. Department of Integrated Circuit Design,Xi’an Microelectronics Technology Institute,Xi’an, Shanxi 710068, Chinaemail: dating1222@163.com

5. School of Mechanical Engineering and Automation,Beihang University,Beijing 100191 Chinaemail: wangcj@buaa.edu.cn

6. Department of Mechanical Engineering,National University of Singapore,Singapore 117575, Singaporeemail: gchirik1@jhu.edu

Abstract

Abstract This paper develops a geometric method to estimate the error space of 3-DOF planar mechanisms with the Minimum Volume Ellipsoid Enclosing (MVEE) approach. Both the joint clearances and actuator errors are considered in this method. Three typical planar parallel mechanisms are used to demonstrate. Error spaces of their serial limbs are analyzed. Thereafter, limb-error-space-constrained mobility of the manipulator, namely, the manipulator error space is analyzed. The MVEE method has been applied to simplify the constraint modeling. A closed-form expression for the manipulator error space is derived. The volume of the manipulator error space is numerically estimated. The approach in this paper is to develop a geometric error analysis method of parallel mechanisms with clear algebraic expressions. Moreover, no forward kinematics computations have been performed in the proposed method, in contrast to the widely used interval analysis method. Although the estimated error space is larger than the actual one, because the enclosing ellipses enlarge the regions of limb error space, the method has an attractive advantage of high computational efficiency.

Funder

National Science Foundation

National Natural Science Foundation of China

Publisher

ASME International

Subject

Mechanical Engineering

Reference31 articles.

1. Accuracy Synthesis of a Multi-Level Hybrid Positioning Mechanism for the Feed Support System in Fast;Tang;Robot. Comput. Integr. Manuf.,2014

2. On the Accuracy of a Stewart Platform. I. The Effect of Manufacturing Tolerances;Wang,1993

3. Error-Model-Based Robot Calibration Using a Modified CPC Model;Zhuang;Robot. Comput. Integr. Manuf.,1993

4. Poe-Based Robot Kinematic Calibration Using Axis Configuration Space and the Adjoint Error Model;Li;IEEE. Trans. Robot.,2016

5. Error Propagation on the Euclidean Group With Applications to Manipulator Kinematics;Wang;IEEE. Trans. Robot.,2006

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