Model Order Reduction of Microactuators: Theory and Application

This paper provides an overview of techniques of compact modeling via model order reduction (MOR), emphasizing their application to cooperative microactuators. MOR creates highly efficient yet accurate surrogate models, facilitating design studies, optimization, closed-loop control and analyses of i...

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Main Authors: Arwed Schütz, Tamara Bechtold
Format: Article
Language:English
Published: MDPI AG 2023-06-01
Series:Actuators
Subjects:
Online Access:https://www.mdpi.com/2076-0825/12/6/235
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author Arwed Schütz
Tamara Bechtold
author_facet Arwed Schütz
Tamara Bechtold
author_sort Arwed Schütz
collection DOAJ
description This paper provides an overview of techniques of compact modeling via model order reduction (MOR), emphasizing their application to cooperative microactuators. MOR creates highly efficient yet accurate surrogate models, facilitating design studies, optimization, closed-loop control and analyses of interacting components. This is particularly important for microactuators due to the variety of physical effects employed, their short time constants and the many nonlinear effects. Different approaches for linear, parametric and nonlinear dynamical systems are summarized. Three numerical case studies for selected methods complement the paper. The described case studies emerged from the <i>Kick and Catch</i> research project and within a framework of the German Research Foundation’s Priority Program, <i>Cooperative Multistable Multistage Microactuator Systems (KOMMMA)</i>.
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spelling doaj.art-adb20b2bea3e46708c22b5473dbabf172023-11-18T08:48:41ZengMDPI AGActuators2076-08252023-06-0112623510.3390/act12060235Model Order Reduction of Microactuators: Theory and ApplicationArwed Schütz0Tamara Bechtold1Department of Engineering, Research Group Modelling and Simulation of Mechatronic Systems, Jade University of Applied Sciences, Friedrich-Paffrath-Str. 101, 26389 Wilhelmshaven, GermanyDepartment of Engineering, Research Group Modelling and Simulation of Mechatronic Systems, Jade University of Applied Sciences, Friedrich-Paffrath-Str. 101, 26389 Wilhelmshaven, GermanyThis paper provides an overview of techniques of compact modeling via model order reduction (MOR), emphasizing their application to cooperative microactuators. MOR creates highly efficient yet accurate surrogate models, facilitating design studies, optimization, closed-loop control and analyses of interacting components. This is particularly important for microactuators due to the variety of physical effects employed, their short time constants and the many nonlinear effects. Different approaches for linear, parametric and nonlinear dynamical systems are summarized. Three numerical case studies for selected methods complement the paper. The described case studies emerged from the <i>Kick and Catch</i> research project and within a framework of the German Research Foundation’s Priority Program, <i>Cooperative Multistable Multistage Microactuator Systems (KOMMMA)</i>.https://www.mdpi.com/2076-0825/12/6/235model order reductionfinite element methodmicroactuatorsmultiphysicsMEMS
spellingShingle Arwed Schütz
Tamara Bechtold
Model Order Reduction of Microactuators: Theory and Application
Actuators
model order reduction
finite element method
microactuators
multiphysics
MEMS
title Model Order Reduction of Microactuators: Theory and Application
title_full Model Order Reduction of Microactuators: Theory and Application
title_fullStr Model Order Reduction of Microactuators: Theory and Application
title_full_unstemmed Model Order Reduction of Microactuators: Theory and Application
title_short Model Order Reduction of Microactuators: Theory and Application
title_sort model order reduction of microactuators theory and application
topic model order reduction
finite element method
microactuators
multiphysics
MEMS
url https://www.mdpi.com/2076-0825/12/6/235
work_keys_str_mv AT arwedschutz modelorderreductionofmicroactuatorstheoryandapplication
AT tamarabechtold modelorderreductionofmicroactuatorstheoryandapplication