Computational Numerical Analysis of a Magnetic Flux Permanent Magnet with Different Shape for The Development of a Hybrid Generator

A hybrid generator is one of the attempts to reduce carbon emissions in electricity generation, as it could replace the combustion system currently used in generator sets to generate electricity while increasing carbon emissions. In the hybrid generator system, Lenz's rule of electromagnetic in...

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Published in:Journal of Mechanical Engineering
Main Author: Bahari M.S.; Firdaus M.; Mohamed Z.; Ramli M.H.M.
Format: Article
Language:English
Published: UiTM Press 2023
Online Access:https://www.scopus.com/inward/record.uri?eid=2-s2.0-85147001359&doi=10.24191%2fjmeche.v20i1.21087&partnerID=40&md5=d51a20a51216302b4d6022c9849dc4af
id 2-s2.0-85147001359
spelling 2-s2.0-85147001359
Bahari M.S.; Firdaus M.; Mohamed Z.; Ramli M.H.M.
Computational Numerical Analysis of a Magnetic Flux Permanent Magnet with Different Shape for The Development of a Hybrid Generator
2023
Journal of Mechanical Engineering
20
1
10.24191/jmeche.v20i1.21087
https://www.scopus.com/inward/record.uri?eid=2-s2.0-85147001359&doi=10.24191%2fjmeche.v20i1.21087&partnerID=40&md5=d51a20a51216302b4d6022c9849dc4af
A hybrid generator is one of the attempts to reduce carbon emissions in electricity generation, as it could replace the combustion system currently used in generator sets to generate electricity while increasing carbon emissions. In the hybrid generator system, Lenz's rule of electromagnetic induction is applied in reverse by using a relay to change the polarity of the solenoid coil's electric current. The permanent magnet in the solenoid coil generates mechanical energy (motion) and thereby moves the generator engine, since the permanent magnet is connected to the generator engine via the crankshaft. The objective of this study is to determine and compare the behaviour of N55, N52, N42, N42SH, and samarium-cobalt permanent magnets for the magnet system. The objective of this study is also to find a suitable permanent magnet for use in the magnet system to increase the power generation efficiency. A simple model is simulated to achieve the desired result, including magnetic flux density inside and around the magnets, magnetic field strength calculation, and applied force. The simulations and analysis are performed using ANSYS R19 software and finally all the data are recorded and compared to select the best magnet and develop a prototype. The permanent magnet inside the solenoid plays an important role in the hybrid generator and it is crucial to choose the suitable permanent magnet to increase the efficiency of power generation. From the data, Alliance N-55 permanent magnet has the highest magnetic force of 131.57 N for 1 mm because it has significantly higher magnetic flux density, magnetic flux intensity and magnetic force. © 2023 College of Engineering, Universiti Teknologi MARA (UiTM), Malaysia.
UiTM Press
18235514
English
Article
All Open Access; Bronze Open Access
author Bahari M.S.; Firdaus M.; Mohamed Z.; Ramli M.H.M.
spellingShingle Bahari M.S.; Firdaus M.; Mohamed Z.; Ramli M.H.M.
Computational Numerical Analysis of a Magnetic Flux Permanent Magnet with Different Shape for The Development of a Hybrid Generator
author_facet Bahari M.S.; Firdaus M.; Mohamed Z.; Ramli M.H.M.
author_sort Bahari M.S.; Firdaus M.; Mohamed Z.; Ramli M.H.M.
title Computational Numerical Analysis of a Magnetic Flux Permanent Magnet with Different Shape for The Development of a Hybrid Generator
title_short Computational Numerical Analysis of a Magnetic Flux Permanent Magnet with Different Shape for The Development of a Hybrid Generator
title_full Computational Numerical Analysis of a Magnetic Flux Permanent Magnet with Different Shape for The Development of a Hybrid Generator
title_fullStr Computational Numerical Analysis of a Magnetic Flux Permanent Magnet with Different Shape for The Development of a Hybrid Generator
title_full_unstemmed Computational Numerical Analysis of a Magnetic Flux Permanent Magnet with Different Shape for The Development of a Hybrid Generator
title_sort Computational Numerical Analysis of a Magnetic Flux Permanent Magnet with Different Shape for The Development of a Hybrid Generator
publishDate 2023
container_title Journal of Mechanical Engineering
container_volume 20
container_issue 1
doi_str_mv 10.24191/jmeche.v20i1.21087
url https://www.scopus.com/inward/record.uri?eid=2-s2.0-85147001359&doi=10.24191%2fjmeche.v20i1.21087&partnerID=40&md5=d51a20a51216302b4d6022c9849dc4af
description A hybrid generator is one of the attempts to reduce carbon emissions in electricity generation, as it could replace the combustion system currently used in generator sets to generate electricity while increasing carbon emissions. In the hybrid generator system, Lenz's rule of electromagnetic induction is applied in reverse by using a relay to change the polarity of the solenoid coil's electric current. The permanent magnet in the solenoid coil generates mechanical energy (motion) and thereby moves the generator engine, since the permanent magnet is connected to the generator engine via the crankshaft. The objective of this study is to determine and compare the behaviour of N55, N52, N42, N42SH, and samarium-cobalt permanent magnets for the magnet system. The objective of this study is also to find a suitable permanent magnet for use in the magnet system to increase the power generation efficiency. A simple model is simulated to achieve the desired result, including magnetic flux density inside and around the magnets, magnetic field strength calculation, and applied force. The simulations and analysis are performed using ANSYS R19 software and finally all the data are recorded and compared to select the best magnet and develop a prototype. The permanent magnet inside the solenoid plays an important role in the hybrid generator and it is crucial to choose the suitable permanent magnet to increase the efficiency of power generation. From the data, Alliance N-55 permanent magnet has the highest magnetic force of 131.57 N for 1 mm because it has significantly higher magnetic flux density, magnetic flux intensity and magnetic force. © 2023 College of Engineering, Universiti Teknologi MARA (UiTM), Malaysia.
publisher UiTM Press
issn 18235514
language English
format Article
accesstype All Open Access; Bronze Open Access
record_format scopus
collection Scopus
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