Concept of modular flexure-based mechanisms for ultra-high precision robot design

This paper introduces a new concept of modular flexure-based mechanisms to design industrial ultra-high precision robots, which aims at significantly reducing both the complexity of their design and their development time. This modular concept can be considered as a robotic Lego, where a finite numb...

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Main Authors: M. Richard, R. Clavel
Format: Article
Language:English
Published: Copernicus Publications 2011-05-01
Series:Mechanical Sciences
Online Access:http://www.mech-sci.net/2/99/2011/ms-2-99-2011.pdf
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spelling doaj-2946856a5832454bac6f761bca5c14432020-11-24T23:51:22ZengCopernicus PublicationsMechanical Sciences2191-91512191-916X2011-05-01219910710.5194/ms-2-99-2011Concept of modular flexure-based mechanisms for ultra-high precision robot designM. RichardR. ClavelThis paper introduces a new concept of modular flexure-based mechanisms to design industrial ultra-high precision robots, which aims at significantly reducing both the complexity of their design and their development time. This modular concept can be considered as a robotic Lego, where a finite number of building bricks is used to quickly build a high-precision robot. The core of the concept is the transformation of a 3-D design problem into several 2-D ones, which are simpler and well-mastered. This paper will first briefly present the theoretical bases of this methodology and the requirements of both types of building bricks: the active and the passive bricks. The section dedicated to the design of the active bricks will detail the current research directions, mainly the maximisation of the strokes and the development of an actuation sub-brick. As for the passive bricks, some examples will be presented, and a discussion regarding the establishment of a mechanical solution catalogue will conclude the section. Last, this modular concept will be illustrated with a practical example, consisting in the design of a 5-degree of freedom ultra-high precision robot.http://www.mech-sci.net/2/99/2011/ms-2-99-2011.pdf
collection DOAJ
language English
format Article
sources DOAJ
author M. Richard
R. Clavel
spellingShingle M. Richard
R. Clavel
Concept of modular flexure-based mechanisms for ultra-high precision robot design
Mechanical Sciences
author_facet M. Richard
R. Clavel
author_sort M. Richard
title Concept of modular flexure-based mechanisms for ultra-high precision robot design
title_short Concept of modular flexure-based mechanisms for ultra-high precision robot design
title_full Concept of modular flexure-based mechanisms for ultra-high precision robot design
title_fullStr Concept of modular flexure-based mechanisms for ultra-high precision robot design
title_full_unstemmed Concept of modular flexure-based mechanisms for ultra-high precision robot design
title_sort concept of modular flexure-based mechanisms for ultra-high precision robot design
publisher Copernicus Publications
series Mechanical Sciences
issn 2191-9151
2191-916X
publishDate 2011-05-01
description This paper introduces a new concept of modular flexure-based mechanisms to design industrial ultra-high precision robots, which aims at significantly reducing both the complexity of their design and their development time. This modular concept can be considered as a robotic Lego, where a finite number of building bricks is used to quickly build a high-precision robot. The core of the concept is the transformation of a 3-D design problem into several 2-D ones, which are simpler and well-mastered. This paper will first briefly present the theoretical bases of this methodology and the requirements of both types of building bricks: the active and the passive bricks. The section dedicated to the design of the active bricks will detail the current research directions, mainly the maximisation of the strokes and the development of an actuation sub-brick. As for the passive bricks, some examples will be presented, and a discussion regarding the establishment of a mechanical solution catalogue will conclude the section. Last, this modular concept will be illustrated with a practical example, consisting in the design of a 5-degree of freedom ultra-high precision robot.
url http://www.mech-sci.net/2/99/2011/ms-2-99-2011.pdf
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