Butterworth pattern based simultaneous damping and tracking controller designs for nanopositioning systems

The Butterworth filter is known to have maximally flat response. Incidentally, the same response is desired in precise positioning systems. This paper presents a method for obtaining a closed-loop Butterworth filter pattern using common control schemes for positioning applications, i.e. Integral Res...

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Main Authors: Douglas eRussell, Andres eSan-Millan, Vicente eFeliu, Sumeet S. Aphale
Format: Article
Language:English
Published: Frontiers Media S.A. 2016-03-01
Series:Frontiers in Mechanical Engineering
Subjects:
Online Access:http://journal.frontiersin.org/Journal/10.3389/fmech.2016.00002/full
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spelling doaj-1dddec9c50194a2f959514578d0d2fe82020-11-24T21:56:39ZengFrontiers Media S.A.Frontiers in Mechanical Engineering2297-30792016-03-01210.3389/fmech.2016.00002174469Butterworth pattern based simultaneous damping and tracking controller designs for nanopositioning systemsDouglas eRussell0Andres eSan-Millan1Vicente eFeliu2Sumeet S. Aphale3University of AberdeenUniversity of Castilla-La ManchaUniversity of Castilla-La ManchaUniversity of AberdeenThe Butterworth filter is known to have maximally flat response. Incidentally, the same response is desired in precise positioning systems. This paper presents a method for obtaining a closed-loop Butterworth filter pattern using common control schemes for positioning applications, i.e. Integral Resonant Control (IRC), Integral Force Feedback (IFF), Positive Position Feedback (PPF), and Positive Velocity and Position Feedback (PVPF). Simulations show a significant increase in bandwidth over traditional design methods and verify the desired pole placement is achieved. The simulations also show a significant limitation of the achievable bandwidth in the case of IRC, IFF, and PPF. For this reason, only PVPF is considered in experimental analysis. Experiments are performed using a two-axis serial kinematic nanopositioning stage. The results show a significant improvement in bandwidth and increased positioning accuracy, specifically at the turn-around point. This allows a greater portion of the scan to be used and improved positioning accuracy at high scanning speeds.http://journal.frontiersin.org/Journal/10.3389/fmech.2016.00002/fulltracking controlNanopositioningDamping controlPositive position feedbackintegral resonance controlPositive velocity and position feedback
collection DOAJ
language English
format Article
sources DOAJ
author Douglas eRussell
Andres eSan-Millan
Vicente eFeliu
Sumeet S. Aphale
spellingShingle Douglas eRussell
Andres eSan-Millan
Vicente eFeliu
Sumeet S. Aphale
Butterworth pattern based simultaneous damping and tracking controller designs for nanopositioning systems
Frontiers in Mechanical Engineering
tracking control
Nanopositioning
Damping control
Positive position feedback
integral resonance control
Positive velocity and position feedback
author_facet Douglas eRussell
Andres eSan-Millan
Vicente eFeliu
Sumeet S. Aphale
author_sort Douglas eRussell
title Butterworth pattern based simultaneous damping and tracking controller designs for nanopositioning systems
title_short Butterworth pattern based simultaneous damping and tracking controller designs for nanopositioning systems
title_full Butterworth pattern based simultaneous damping and tracking controller designs for nanopositioning systems
title_fullStr Butterworth pattern based simultaneous damping and tracking controller designs for nanopositioning systems
title_full_unstemmed Butterworth pattern based simultaneous damping and tracking controller designs for nanopositioning systems
title_sort butterworth pattern based simultaneous damping and tracking controller designs for nanopositioning systems
publisher Frontiers Media S.A.
series Frontiers in Mechanical Engineering
issn 2297-3079
publishDate 2016-03-01
description The Butterworth filter is known to have maximally flat response. Incidentally, the same response is desired in precise positioning systems. This paper presents a method for obtaining a closed-loop Butterworth filter pattern using common control schemes for positioning applications, i.e. Integral Resonant Control (IRC), Integral Force Feedback (IFF), Positive Position Feedback (PPF), and Positive Velocity and Position Feedback (PVPF). Simulations show a significant increase in bandwidth over traditional design methods and verify the desired pole placement is achieved. The simulations also show a significant limitation of the achievable bandwidth in the case of IRC, IFF, and PPF. For this reason, only PVPF is considered in experimental analysis. Experiments are performed using a two-axis serial kinematic nanopositioning stage. The results show a significant improvement in bandwidth and increased positioning accuracy, specifically at the turn-around point. This allows a greater portion of the scan to be used and improved positioning accuracy at high scanning speeds.
topic tracking control
Nanopositioning
Damping control
Positive position feedback
integral resonance control
Positive velocity and position feedback
url http://journal.frontiersin.org/Journal/10.3389/fmech.2016.00002/full
work_keys_str_mv AT douglaserussell butterworthpatternbasedsimultaneousdampingandtrackingcontrollerdesignsfornanopositioningsystems
AT andresesanmillan butterworthpatternbasedsimultaneousdampingandtrackingcontrollerdesignsfornanopositioningsystems
AT vicenteefeliu butterworthpatternbasedsimultaneousdampingandtrackingcontrollerdesignsfornanopositioningsystems
AT sumeetsaphale butterworthpatternbasedsimultaneousdampingandtrackingcontrollerdesignsfornanopositioningsystems
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