Generating Sub-nanometer Displacement Using Reduction Mechanism Consisting of Torsional Leaf Spring Hinges

Recent demand on the measurement resolution of precise positioning comes up to tens of picometers. Some distinguished researches have been performed to measure the displacement in picometer order, however, few of them can verify the measurement performance as available tools in industry. This is not...

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Main Authors: Fukuda Makoto, Hayashi Masato, Marita Sintaro
Format: Article
Language:English
Published: Sciendo 2014-02-01
Series:Measurement Science Review
Subjects:
Online Access:https://doi.org/10.2478/msr-2014-0008
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spelling doaj-3dd468f55a0f4d98901899ae562c39a82021-09-06T19:22:37ZengSciendoMeasurement Science Review1335-88712014-02-01141485110.2478/msr-2014-0008msr-2014-0008Generating Sub-nanometer Displacement Using Reduction Mechanism Consisting of Torsional Leaf Spring HingesFukuda Makoto0Hayashi Masato1Marita Sintaro2Graduate School of Science and Technology, Hirosaki University, 3 Bunkyo-cho, Hirosaki-city, Aomori Pref. 036-8561, JapanGraduate School of Science and Technology, Hirosaki University, 3 Bunkyo-cho, Hirosaki-city, Aomori Pref. 036-8561, JapanGraduate School of Science and Technology, Hirosaki University, 3 Bunkyo-cho, Hirosaki-city, Aomori Pref. 036-8561, JapanRecent demand on the measurement resolution of precise positioning comes up to tens of picometers. Some distinguished researches have been performed to measure the displacement in picometer order, however, few of them can verify the measurement performance as available tools in industry. This is not only because the picometer displacement is not yet required for industrial use, but also due to the lack of standard tools to verify such precise displacement. We proposed a displacement reduction mechanism for generating precise displacement using torsional leaf spring hinges (TLSHs) that consist of four leaf springs arranged radially. It has been demonstrated that a prototype of the reduction mechanism was able to provide one-nanometer displacement with 1/1000 reduction rate by a piezoelectric actuator. In order to clarify the potential of the reduction mechanism, a displacement reduction table that can be mounted on AFM stage was newly developed using TLSHs. This paper describes the design of the reduction mechanism and the sub-nanometer displacement performance of the table obtained from its dynamic and static characteristics measured by displacement sensors and from the AFM imageshttps://doi.org/10.2478/msr-2014-0008sub-nanometer displacementreduction mechanismtorsional leaf spring hingedisplacement standardafm verification
collection DOAJ
language English
format Article
sources DOAJ
author Fukuda Makoto
Hayashi Masato
Marita Sintaro
spellingShingle Fukuda Makoto
Hayashi Masato
Marita Sintaro
Generating Sub-nanometer Displacement Using Reduction Mechanism Consisting of Torsional Leaf Spring Hinges
Measurement Science Review
sub-nanometer displacement
reduction mechanism
torsional leaf spring hinge
displacement standard
afm verification
author_facet Fukuda Makoto
Hayashi Masato
Marita Sintaro
author_sort Fukuda Makoto
title Generating Sub-nanometer Displacement Using Reduction Mechanism Consisting of Torsional Leaf Spring Hinges
title_short Generating Sub-nanometer Displacement Using Reduction Mechanism Consisting of Torsional Leaf Spring Hinges
title_full Generating Sub-nanometer Displacement Using Reduction Mechanism Consisting of Torsional Leaf Spring Hinges
title_fullStr Generating Sub-nanometer Displacement Using Reduction Mechanism Consisting of Torsional Leaf Spring Hinges
title_full_unstemmed Generating Sub-nanometer Displacement Using Reduction Mechanism Consisting of Torsional Leaf Spring Hinges
title_sort generating sub-nanometer displacement using reduction mechanism consisting of torsional leaf spring hinges
publisher Sciendo
series Measurement Science Review
issn 1335-8871
publishDate 2014-02-01
description Recent demand on the measurement resolution of precise positioning comes up to tens of picometers. Some distinguished researches have been performed to measure the displacement in picometer order, however, few of them can verify the measurement performance as available tools in industry. This is not only because the picometer displacement is not yet required for industrial use, but also due to the lack of standard tools to verify such precise displacement. We proposed a displacement reduction mechanism for generating precise displacement using torsional leaf spring hinges (TLSHs) that consist of four leaf springs arranged radially. It has been demonstrated that a prototype of the reduction mechanism was able to provide one-nanometer displacement with 1/1000 reduction rate by a piezoelectric actuator. In order to clarify the potential of the reduction mechanism, a displacement reduction table that can be mounted on AFM stage was newly developed using TLSHs. This paper describes the design of the reduction mechanism and the sub-nanometer displacement performance of the table obtained from its dynamic and static characteristics measured by displacement sensors and from the AFM images
topic sub-nanometer displacement
reduction mechanism
torsional leaf spring hinge
displacement standard
afm verification
url https://doi.org/10.2478/msr-2014-0008
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