Assessment of Replacement of Metal Parts by BFRP Composites into a Highly Efficient Electrical Prototype
This work intends to evaluate the use of epoxy composite materials reinforced with basalt fibers as replacement to metallic mechanical parts of a highly efficient electrical prototype. The analysis of the behavior of the original metallic bracket was made and an optimization process was carried out...
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2021-04-01
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Online Access: | https://www.mdpi.com/2504-477X/5/4/95 |
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doaj-54f0c26c7d4d4996905a4b0442a624172021-04-01T23:08:14ZengMDPI AGJournal of Composites Science2504-477X2021-04-015959510.3390/jcs5040095Assessment of Replacement of Metal Parts by BFRP Composites into a Highly Efficient Electrical PrototypeRosa Marat-Mendes0Diogo Ribeira1Luís Reis2ENIDH, Escola Superior Náutica Infante D. Henrique, Av. Eng. Bonneville Franco, 2770-058 Paço de Arcos, PortugalIDMEC, Instituto Superior Técnico, Universidade de Lisboa, Av. Rovisco Pais, 1, 1049-001 Lisboa, PortugalIDMEC, Instituto Superior Técnico, Universidade de Lisboa, Av. Rovisco Pais, 1, 1049-001 Lisboa, PortugalThis work intends to evaluate the use of epoxy composite materials reinforced with basalt fibers as replacement to metallic mechanical parts of a highly efficient electrical prototype. The analysis of the behavior of the original metallic bracket was made and an optimization process was carried out in order to achieve the most suitable geometry and stacking sequence if produced in composite material. Finite element analysis using Siemens NX12 and experimental tests to the produced composite part were performed in order to access it. It was verified that the total weight of the composite part shows a 45% reduction. The composite part shows a higher deformation than the metallic one due to basalt fiber’s higher flexibility. However, the advantages added by the new component largely compensate for the disadvantages that may have been added without compromising its performance. Obtained results show that the use of basalt fiber reinforced composites as the material of mechanical parts of a highly efficient electrical prototype that is a good alternative.https://www.mdpi.com/2504-477X/5/4/95basalt fibermanufacturecomposite materialsfinite element method |
collection |
DOAJ |
language |
English |
format |
Article |
sources |
DOAJ |
author |
Rosa Marat-Mendes Diogo Ribeira Luís Reis |
spellingShingle |
Rosa Marat-Mendes Diogo Ribeira Luís Reis Assessment of Replacement of Metal Parts by BFRP Composites into a Highly Efficient Electrical Prototype Journal of Composites Science basalt fiber manufacture composite materials finite element method |
author_facet |
Rosa Marat-Mendes Diogo Ribeira Luís Reis |
author_sort |
Rosa Marat-Mendes |
title |
Assessment of Replacement of Metal Parts by BFRP Composites into a Highly Efficient Electrical Prototype |
title_short |
Assessment of Replacement of Metal Parts by BFRP Composites into a Highly Efficient Electrical Prototype |
title_full |
Assessment of Replacement of Metal Parts by BFRP Composites into a Highly Efficient Electrical Prototype |
title_fullStr |
Assessment of Replacement of Metal Parts by BFRP Composites into a Highly Efficient Electrical Prototype |
title_full_unstemmed |
Assessment of Replacement of Metal Parts by BFRP Composites into a Highly Efficient Electrical Prototype |
title_sort |
assessment of replacement of metal parts by bfrp composites into a highly efficient electrical prototype |
publisher |
MDPI AG |
series |
Journal of Composites Science |
issn |
2504-477X |
publishDate |
2021-04-01 |
description |
This work intends to evaluate the use of epoxy composite materials reinforced with basalt fibers as replacement to metallic mechanical parts of a highly efficient electrical prototype. The analysis of the behavior of the original metallic bracket was made and an optimization process was carried out in order to achieve the most suitable geometry and stacking sequence if produced in composite material. Finite element analysis using Siemens NX12 and experimental tests to the produced composite part were performed in order to access it. It was verified that the total weight of the composite part shows a 45% reduction. The composite part shows a higher deformation than the metallic one due to basalt fiber’s higher flexibility. However, the advantages added by the new component largely compensate for the disadvantages that may have been added without compromising its performance. Obtained results show that the use of basalt fiber reinforced composites as the material of mechanical parts of a highly efficient electrical prototype that is a good alternative. |
topic |
basalt fiber manufacture composite materials finite element method |
url |
https://www.mdpi.com/2504-477X/5/4/95 |
work_keys_str_mv |
AT rosamaratmendes assessmentofreplacementofmetalpartsbybfrpcompositesintoahighlyefficientelectricalprototype AT diogoribeira assessmentofreplacementofmetalpartsbybfrpcompositesintoahighlyefficientelectricalprototype AT luisreis assessmentofreplacementofmetalpartsbybfrpcompositesintoahighlyefficientelectricalprototype |
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