Torsional Behaviour and Finite Element Analysis of the Hybrid Laminated Composite Shafts: Comparison of VARTM with Vacuum Bagging Manufacturing Method

Braided sleeve composite shafts are produced and their torsional behavior is investigated. The braided sleeves are slid over an Al tube to create very strong and rigid tubular form shafts and they are in the form of 2/2 twill biaxial fiber fabric that has been woven into a continuous sleeve. Carbon...

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Main Authors: Mehmet Emin Taşdelen, Mehmet Halidun Keleştemur, Ercan Şevkat
Format: Article
Language:English
Published: Wiley 2016-01-01
Series:Advances in Materials Science and Engineering
Online Access:http://dx.doi.org/10.1155/2016/9490375
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author Mehmet Emin Taşdelen
Mehmet Halidun Keleştemur
Ercan Şevkat
author_facet Mehmet Emin Taşdelen
Mehmet Halidun Keleştemur
Ercan Şevkat
author_sort Mehmet Emin Taşdelen
collection DOAJ
description Braided sleeve composite shafts are produced and their torsional behavior is investigated. The braided sleeves are slid over an Al tube to create very strong and rigid tubular form shafts and they are in the form of 2/2 twill biaxial fiber fabric that has been woven into a continuous sleeve. Carbon and glass fibers braided sleeves are used for the fabrication of the composite shafts. VARTM (vacuum assisted resin transfer molding) and Vacuum Bagging are the two different types of manufacturing methods used in the study. Torsional behaviors of the shafts are investigated experimentally in terms of fabrication methods and various composite materials parameters such as fiber types, layer thickness, and ply angles. Comparing the two methods in terms of the torque forces and strain angles, the shafts producing entirely carbon fiber show the highest torque capacities; however, considering the cost and performance criteria, the hybrid shaft made up of carbon and glass fibers is the optimum solution for average demanded properties. Additionally, FE (finite element) model of the shafts was created and analyzed by using ANSYS workbench environment. Results of finite element analysis are compared with the values of twisting angle and torque obtained by experimental tests.
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institution Kabale University
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language English
publishDate 2016-01-01
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series Advances in Materials Science and Engineering
spelling doaj-art-eb03d7ab257d480db7afa420e47c0c1d2025-02-03T06:42:24ZengWileyAdvances in Materials Science and Engineering1687-84341687-84422016-01-01201610.1155/2016/94903759490375Torsional Behaviour and Finite Element Analysis of the Hybrid Laminated Composite Shafts: Comparison of VARTM with Vacuum Bagging Manufacturing MethodMehmet Emin Taşdelen0Mehmet Halidun Keleştemur1Ercan Şevkat2Department of Materials Science and Engineering, Erciyes University, Melikgazi, 38039 Kayseri, TurkeyDepartment of Mechanical Engineering, Meliksah University, Talas, 38280 Kayseri, TurkeyDepartment of Mechanical Engineering, Meliksah University, Talas, 38280 Kayseri, TurkeyBraided sleeve composite shafts are produced and their torsional behavior is investigated. The braided sleeves are slid over an Al tube to create very strong and rigid tubular form shafts and they are in the form of 2/2 twill biaxial fiber fabric that has been woven into a continuous sleeve. Carbon and glass fibers braided sleeves are used for the fabrication of the composite shafts. VARTM (vacuum assisted resin transfer molding) and Vacuum Bagging are the two different types of manufacturing methods used in the study. Torsional behaviors of the shafts are investigated experimentally in terms of fabrication methods and various composite materials parameters such as fiber types, layer thickness, and ply angles. Comparing the two methods in terms of the torque forces and strain angles, the shafts producing entirely carbon fiber show the highest torque capacities; however, considering the cost and performance criteria, the hybrid shaft made up of carbon and glass fibers is the optimum solution for average demanded properties. Additionally, FE (finite element) model of the shafts was created and analyzed by using ANSYS workbench environment. Results of finite element analysis are compared with the values of twisting angle and torque obtained by experimental tests.http://dx.doi.org/10.1155/2016/9490375
spellingShingle Mehmet Emin Taşdelen
Mehmet Halidun Keleştemur
Ercan Şevkat
Torsional Behaviour and Finite Element Analysis of the Hybrid Laminated Composite Shafts: Comparison of VARTM with Vacuum Bagging Manufacturing Method
Advances in Materials Science and Engineering
title Torsional Behaviour and Finite Element Analysis of the Hybrid Laminated Composite Shafts: Comparison of VARTM with Vacuum Bagging Manufacturing Method
title_full Torsional Behaviour and Finite Element Analysis of the Hybrid Laminated Composite Shafts: Comparison of VARTM with Vacuum Bagging Manufacturing Method
title_fullStr Torsional Behaviour and Finite Element Analysis of the Hybrid Laminated Composite Shafts: Comparison of VARTM with Vacuum Bagging Manufacturing Method
title_full_unstemmed Torsional Behaviour and Finite Element Analysis of the Hybrid Laminated Composite Shafts: Comparison of VARTM with Vacuum Bagging Manufacturing Method
title_short Torsional Behaviour and Finite Element Analysis of the Hybrid Laminated Composite Shafts: Comparison of VARTM with Vacuum Bagging Manufacturing Method
title_sort torsional behaviour and finite element analysis of the hybrid laminated composite shafts comparison of vartm with vacuum bagging manufacturing method
url http://dx.doi.org/10.1155/2016/9490375
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AT mehmethalidunkelestemur torsionalbehaviourandfiniteelementanalysisofthehybridlaminatedcompositeshaftscomparisonofvartmwithvacuumbaggingmanufacturingmethod
AT ercansevkat torsionalbehaviourandfiniteelementanalysisofthehybridlaminatedcompositeshaftscomparisonofvartmwithvacuumbaggingmanufacturingmethod