Title
Static Modeling Of Linear Object Deformation Based On Differential Geometry
Abstract
We describe the modeling of linear object deformation based on differential geometry and its applications to manipulative operations. A particle-based approach, the finite element method, and the Cosserat theory have been applied to the modeling of linear object deformation. In this paper, we establish an alternative modeling approach based on an extension of differential geometry. First, we extend differential geometry to describe linear object deformation including flexure, torsion, and extension. Secondly, we show computational results to demonstrate the feasibility of the proposed modeling technique, and we compare computational and experimental results to demonstrate the accuracy of the model. Next, we apply the proposed approach to the grasping of a deformable linear object. We propose a disturbance force margin to indicate the stability of the grasping and we describe the computation of the margin using the proposed approach. Finally, we apply the proposed approach to the deformation path planning of a linear object. We formulate the minimization of potential energy during a deformation path. We compute the optimal deformation path and a feasible deformation path, which are compared with an experimental result.
Year
DOI
Venue
2004
10.1177/0278364904041882
INTERNATIONAL JOURNAL OF ROBOTICS RESEARCH
Keywords
Field
DocType
deformation, modeling, linear objects, statics, differential geometry
Motion planning,Applied mathematics,Torsion (mechanics),Control theory,Statics,Finite element method,Differential geometry,Deformation (mechanics),Classical mechanics,Mathematics,Computation
Journal
Volume
Issue
ISSN
23
3
0278-3649
Citations 
PageRank 
References 
41
2.88
20
Authors
2
Name
Order
Citations
PageRank
Hidefumi Wakamatsu115519.11
Shinichi Hirai263396.48