Notched impact strength of fibre - reinforced polymer (FRP) composites / Azlira Abdul Aziz

This project is attempted to apply mechanics concepts for notched fiber reinforced polymer (FRP) composites material where it has subjected to low impact loading. The materials used were Woven E-Glass fiber / epoxy composites. The specimen configuration for this project was 50 x 200 mm and notched l...

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Main Author: Abdul Aziz, Azlira
Format: Thesis
Language:English
Published: 2005
Subjects:
Online Access:https://ir.uitm.edu.my/id/eprint/21103/
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author Abdul Aziz, Azlira
author_facet Abdul Aziz, Azlira
author_sort Abdul Aziz, Azlira
building UiTM Institutional Repository
collection Online Access
description This project is attempted to apply mechanics concepts for notched fiber reinforced polymer (FRP) composites material where it has subjected to low impact loading. The materials used were Woven E-Glass fiber / epoxy composites. The specimen configuration for this project was 50 x 200 mm and notched lengths were 15, 22.5 and 30 mm. The mechanics concept that was applied is to find the fracture toughness and notched strength of woven E-glass fiber/epoxy composites after subjected to low impact loading. In order to apply that mechanics concept, a few experimental test being implemented such as Low Blow Impact Test and Tensile Test to get the data. For the Low Blow Impact test, the impact energy used was 2, 4, 6 and 8 Joules. The notched strength and fracture resistance of woven E-glass/epoxy was studied. The specimen with lower impact energy (2 Joules) has the biggest value of fracture toughness than the higher impact energy. The specimen with fewer notches length (the less notch length is 15 mm) has the biggest value of fracture toughness compare to longer notch length. The conclusion is the specimen with the lower impact energy and the less notch length has tougher than the specimen with high impact energy and longer notch length. For the notched strength, the specimen with the lower impact energy and the less notch length has the bigger notched strength than the specimen with high impact energy and longer notch length. From observation, only surface crack at specimen has been occurred due to the Low Blow Impact Test. The surface cracks of epoxy for 2 joules impact loading is too small and it being increase for other higher impact loading. In this specimen the dominant damage mechanism is fiber breakage followed by delamination of the plies.
first_indexed 2025-11-14T22:06:39Z
format Thesis
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institution Universiti Teknologi MARA
institution_category Local University
language English
last_indexed 2025-11-14T22:06:39Z
publishDate 2005
recordtype eprints
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spelling uitm-211032018-10-11T09:01:57Z https://ir.uitm.edu.my/id/eprint/21103/ Notched impact strength of fibre - reinforced polymer (FRP) composites / Azlira Abdul Aziz Abdul Aziz, Azlira Mechanics of engineering. Applied mechanics Reinforced concrete Polymers and polymer manufacture This project is attempted to apply mechanics concepts for notched fiber reinforced polymer (FRP) composites material where it has subjected to low impact loading. The materials used were Woven E-Glass fiber / epoxy composites. The specimen configuration for this project was 50 x 200 mm and notched lengths were 15, 22.5 and 30 mm. The mechanics concept that was applied is to find the fracture toughness and notched strength of woven E-glass fiber/epoxy composites after subjected to low impact loading. In order to apply that mechanics concept, a few experimental test being implemented such as Low Blow Impact Test and Tensile Test to get the data. For the Low Blow Impact test, the impact energy used was 2, 4, 6 and 8 Joules. The notched strength and fracture resistance of woven E-glass/epoxy was studied. The specimen with lower impact energy (2 Joules) has the biggest value of fracture toughness than the higher impact energy. The specimen with fewer notches length (the less notch length is 15 mm) has the biggest value of fracture toughness compare to longer notch length. The conclusion is the specimen with the lower impact energy and the less notch length has tougher than the specimen with high impact energy and longer notch length. For the notched strength, the specimen with the lower impact energy and the less notch length has the bigger notched strength than the specimen with high impact energy and longer notch length. From observation, only surface crack at specimen has been occurred due to the Low Blow Impact Test. The surface cracks of epoxy for 2 joules impact loading is too small and it being increase for other higher impact loading. In this specimen the dominant damage mechanism is fiber breakage followed by delamination of the plies. 2005 Thesis NonPeerReviewed text en https://ir.uitm.edu.my/id/eprint/21103/1/TD_AZLIRA%20ABDUL%20AZIZ%20%20EM%2005_5.pdf Abdul Aziz, Azlira (2005) Notched impact strength of fibre - reinforced polymer (FRP) composites / Azlira Abdul Aziz. (2005) Degree thesis, thesis, Universiti Teknologi MARA. <http://terminalib.uitm.edu.my/21103.pdf>
spellingShingle Mechanics of engineering. Applied mechanics
Reinforced concrete
Polymers and polymer manufacture
Abdul Aziz, Azlira
Notched impact strength of fibre - reinforced polymer (FRP) composites / Azlira Abdul Aziz
title Notched impact strength of fibre - reinforced polymer (FRP) composites / Azlira Abdul Aziz
title_full Notched impact strength of fibre - reinforced polymer (FRP) composites / Azlira Abdul Aziz
title_fullStr Notched impact strength of fibre - reinforced polymer (FRP) composites / Azlira Abdul Aziz
title_full_unstemmed Notched impact strength of fibre - reinforced polymer (FRP) composites / Azlira Abdul Aziz
title_short Notched impact strength of fibre - reinforced polymer (FRP) composites / Azlira Abdul Aziz
title_sort notched impact strength of fibre - reinforced polymer (frp) composites / azlira abdul aziz
topic Mechanics of engineering. Applied mechanics
Reinforced concrete
Polymers and polymer manufacture
url https://ir.uitm.edu.my/id/eprint/21103/