DocumentCode
495852
Title
A new large-stroke compliant joint & micro/nano positioner design based on compliant building blocks
Author
Jingjun, Yu ; Xu, Pei ; Minglei, Sun ; Shanshan, Zhao ; Shushing, Bi ; Guanghua, Zong
Author_Institution
Robot. Inst., BeiHang Univ., Beijing, China
fYear
2009
fDate
22-24 June 2009
Firstpage
409
Lastpage
416
Abstract
During the phase of concept design of compliant joints & mechanisms, also synthesis of the mechanism, an effective design method is definitely important for generating a creative design. Currently, these design methods can boil down to three categories: creative thinking stepped from designer´s intuition and experience, systematic design method based on topological synthesis or pseudo-rigid-body model (PRBM), and a ldquonaturerdquo design method in terms of compliant building block (CBB), whilst CBB method combines the advantages of the first two kinds of approaches. This paper mainly introduces the CBB design method which may lead to some new large-stroke compliant joints & micro/nano positioners. All joint and mechanism design is based on a special CBB family, i.e. virtual-center-of-motion (VCM) pivots including a leaf-type isosceles-trapezoidal flexural (LITF), etc. The main advantage of the VCM CBBs is that they can achieve a virtual center of motion and regarded as a kind of high-performance flexure primitive as well. A method to construct complex compliant joints and micro/nano positioners is presented by combination of several identical or different CBBs. This method is mainly considering the trends of center-shift or error motion after combination. Some applications of this design method is tested correspondingly. As a result, a novel family of high-performance complex compliant joints or micro/nano positioners can be obtained.
Keywords
control system synthesis; nanopositioning; compliant building blocks; concept design; creative design; creative thinking; large-stroke compliant joint; leaf-type isosceles-trapezoidal flexural; micropositioner design; nanopositioner design; pseudo-rigid-body model; systematic design method; topological synthesis; virtual-center-of-motion pivots; Assembly; Bismuth; Design methodology; Design optimization; Graph theory; Performance analysis; Robots; Sun; Testing; Topology; compliant building block; compliant joint; compliant mechanism; design; flexure;
fLanguage
English
Publisher
ieee
Conference_Titel
Reconfigurable Mechanisms and Robots, 2009. ReMAR 2009. ASME/IFToMM International Conference on
Conference_Location
London
Print_ISBN
978-88-89007-37-2
Electronic_ISBN
978-1-876346-58-4
Type
conf
Filename
5173861
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