Design and simulation of core-ring magnet configurations for maximising energy transduction in linear actuators and micro-energy generators

© 2016 IEEE.The Linear energy harvesters and actuators employ electromagnetic induction principles to generate electrical energy or motion. The most common configurations for such actuators are cylindrical ring magnets with coils inside or cylindrical magnets with coils surrounding the magnets. A se...

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Main Authors: Gatti, R., Howard, Ian, Lumentut, M.
Format: Conference Paper
Published: 2016
Online Access:http://hdl.handle.net/20.500.11937/45233
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author Gatti, R.
Howard, Ian
Lumentut, M.
author_facet Gatti, R.
Howard, Ian
Lumentut, M.
author_sort Gatti, R.
building Curtin Institutional Repository
collection Online Access
description © 2016 IEEE.The Linear energy harvesters and actuators employ electromagnetic induction principles to generate electrical energy or motion. The most common configurations for such actuators are cylindrical ring magnets with coils inside or cylindrical magnets with coils surrounding the magnets. A series of numerical FEA analyses were performed to design and simulate different core-ring magnet configurations to identify the best possible combination for maximum energy transduction. It was observed that the tapered ring magnet - tapered core configuration had the highest magnetic spatial variation and thus suitable for maximum energy transduction. This study can be applied to design linear actuators, linear electromagnetic energy harvesters and from microscale to macroscale applications.
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spelling curtin-20.500.11937-452332020-07-27T02:58:54Z Design and simulation of core-ring magnet configurations for maximising energy transduction in linear actuators and micro-energy generators Gatti, R. Howard, Ian Lumentut, M. © 2016 IEEE.The Linear energy harvesters and actuators employ electromagnetic induction principles to generate electrical energy or motion. The most common configurations for such actuators are cylindrical ring magnets with coils inside or cylindrical magnets with coils surrounding the magnets. A series of numerical FEA analyses were performed to design and simulate different core-ring magnet configurations to identify the best possible combination for maximum energy transduction. It was observed that the tapered ring magnet - tapered core configuration had the highest magnetic spatial variation and thus suitable for maximum energy transduction. This study can be applied to design linear actuators, linear electromagnetic energy harvesters and from microscale to macroscale applications. 2016 Conference Paper http://hdl.handle.net/20.500.11937/45233 10.1109/ICEETS.2016.7583856 restricted
spellingShingle Gatti, R.
Howard, Ian
Lumentut, M.
Design and simulation of core-ring magnet configurations for maximising energy transduction in linear actuators and micro-energy generators
title Design and simulation of core-ring magnet configurations for maximising energy transduction in linear actuators and micro-energy generators
title_full Design and simulation of core-ring magnet configurations for maximising energy transduction in linear actuators and micro-energy generators
title_fullStr Design and simulation of core-ring magnet configurations for maximising energy transduction in linear actuators and micro-energy generators
title_full_unstemmed Design and simulation of core-ring magnet configurations for maximising energy transduction in linear actuators and micro-energy generators
title_short Design and simulation of core-ring magnet configurations for maximising energy transduction in linear actuators and micro-energy generators
title_sort design and simulation of core-ring magnet configurations for maximising energy transduction in linear actuators and micro-energy generators
url http://hdl.handle.net/20.500.11937/45233