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contributor authorAndrew J. Sommese
contributor authorJan Verschelde
contributor authorCharles W. Wampler
date accessioned2017-05-09T00:13:55Z
date available2017-05-09T00:13:55Z
date copyrightMarch, 2004
date issued2004
identifier issn1050-0472
identifier otherJMDEDB-27782#262_1.pdf
identifier urihttp://yetl.yabesh.ir/yetl/handle/yetl/130543
description abstractFor many mechanical systems, including nearly all robotic manipulators, the set of possible configurations that the links may assume can be described by a system of polynomial equations. Thus, solving such systems is central to many problems in analyzing the motion of a mechanism or in designing a mechanism to achieve a desired motion. This paper describes techniques, based on polynomial continuation, for numerically solving such systems. Whereas in the past, these techniques were focused on finding isolated roots, we now address the treatment of systems having higher-dimensional solution sets. Special attention is given to cases of exceptional mechanisms, which have a higher degree of freedom of motion than predicted by their mobility. In fact, such mechanisms often have several disjoint assembly modes, and the degree of freedom of motion is not necessarily the same in each mode. Our algorithms identify all such assembly modes, determine their dimension and degree, and give sample points on each.
publisherThe American Society of Mechanical Engineers (ASME)
titleAdvances in Polynomial Continuation for Solving Problems in Kinematics
typeJournal Paper
journal volume126
journal issue2
journal titleJournal of Mechanical Design
identifier doi10.1115/1.1649965
journal fristpage262
journal lastpage268
identifier eissn1528-9001
keywordsKinematics
keywordsMotion
keywordsDimensions
keywordsAlgorithms
keywordsEquations
keywordsPolynomials AND Mechanisms
treeJournal of Mechanical Design:;2004:;volume( 126 ):;issue: 002
contenttypeFulltext


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