Stacking Effect of Carbon/Glass Fiber During Drilling Operation of Laminated Polymer Composite

Nowadays, fiber stacks are extensively used in the aircraft and structural component manufacturing industries. It is mainly due to their excellent mechanical and physiochemical performances. The different stacking sequences of fiber materials expand the structural properties due to high-strength car...

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Main Authors: A.D. Dubey, J. Kumar, P. Kyratsis, R.K. Verma
Format: Article
Language:English
Published: Polish Academy of Sciences 2024-06-01
Series:Archives of Metallurgy and Materials
Subjects:
Online Access:https://journals.pan.pl/Content/131889/AMM-2024-2-35-Verma.pdf
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author A.D. Dubey
J. Kumar
P. Kyratsis
R.K. Verma
author_facet A.D. Dubey
J. Kumar
P. Kyratsis
R.K. Verma
author_sort A.D. Dubey
collection DOAJ
description Nowadays, fiber stacks are extensively used in the aircraft and structural component manufacturing industries. It is mainly due to their excellent mechanical and physiochemical performances. The different stacking sequences of fiber materials expand the structural properties due to high-strength carbon fiber and low-cost glass fiber. The fragile and anisotropic conduct of Carbon (Cf) and Glass (Gf) laminates generates different types of complex machining issues. This article focuses on the Drilling test of Carbon/glass fiber hybrid composites using different stacking sequences. The effect of varying stacking orders is explored in this study to identify a feasible composite. The control of varying constraints, namely, spindle speed (N), feed rate (f ), and stacking sequence (SS) of carbon (Cf) and glass fiber (Gf) reinforcement, is performed to achieve the optimal parametric condition. The finding reveals that sample A (C4G4) stacking sequence provides an acceptable value for thrust force 59.05 N and delamination 1.0001 for high drilling efficiency. The stacking technique of carbon/glass layers can be endorsed to the manufacturing sector for cost-effective composite development and a defect-free machining environment.
format Article
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institution Kabale University
issn 2300-1909
language English
publishDate 2024-06-01
publisher Polish Academy of Sciences
record_format Article
series Archives of Metallurgy and Materials
spelling doaj-art-68b47e247d0443c3a27a4f6a1de1768c2024-12-27T14:07:46ZengPolish Academy of SciencesArchives of Metallurgy and Materials2300-19092024-06-01vol. 69No 2589598https://doi.org/10.24425/amm.2024.149787Stacking Effect of Carbon/Glass Fiber During Drilling Operation of Laminated Polymer CompositeA.D. Dubey0J. Kumar1P. Kyratsis2R.K. Verma3Madan Mohan Malaviya University of Technology, Department of Mechanical Engineering, Gorakhpur, 273010, IndiaNIMS University Rajasthan, Nims Institute of Engineering and Technology, Department of Mechanical and Aerospac e Engineering, Jaipur, Rajasthan, 303121, IndiaUniversity of Western Macedonia, Department of Product and Systems Design Engineering, 50100, GreeceSchool of Engineering, Harcourt Butler Technical University, Department of Mechanical Engineering, Kanpur, 208002, IndiaNowadays, fiber stacks are extensively used in the aircraft and structural component manufacturing industries. It is mainly due to their excellent mechanical and physiochemical performances. The different stacking sequences of fiber materials expand the structural properties due to high-strength carbon fiber and low-cost glass fiber. The fragile and anisotropic conduct of Carbon (Cf) and Glass (Gf) laminates generates different types of complex machining issues. This article focuses on the Drilling test of Carbon/glass fiber hybrid composites using different stacking sequences. The effect of varying stacking orders is explored in this study to identify a feasible composite. The control of varying constraints, namely, spindle speed (N), feed rate (f ), and stacking sequence (SS) of carbon (Cf) and glass fiber (Gf) reinforcement, is performed to achieve the optimal parametric condition. The finding reveals that sample A (C4G4) stacking sequence provides an acceptable value for thrust force 59.05 N and delamination 1.0001 for high drilling efficiency. The stacking technique of carbon/glass layers can be endorsed to the manufacturing sector for cost-effective composite development and a defect-free machining environment.https://journals.pan.pl/Content/131889/AMM-2024-2-35-Verma.pdfstackingsequencethrustdelaminationcarbon
spellingShingle A.D. Dubey
J. Kumar
P. Kyratsis
R.K. Verma
Stacking Effect of Carbon/Glass Fiber During Drilling Operation of Laminated Polymer Composite
Archives of Metallurgy and Materials
stacking
sequence
thrust
delamination
carbon
title Stacking Effect of Carbon/Glass Fiber During Drilling Operation of Laminated Polymer Composite
title_full Stacking Effect of Carbon/Glass Fiber During Drilling Operation of Laminated Polymer Composite
title_fullStr Stacking Effect of Carbon/Glass Fiber During Drilling Operation of Laminated Polymer Composite
title_full_unstemmed Stacking Effect of Carbon/Glass Fiber During Drilling Operation of Laminated Polymer Composite
title_short Stacking Effect of Carbon/Glass Fiber During Drilling Operation of Laminated Polymer Composite
title_sort stacking effect of carbon glass fiber during drilling operation of laminated polymer composite
topic stacking
sequence
thrust
delamination
carbon
url https://journals.pan.pl/Content/131889/AMM-2024-2-35-Verma.pdf
work_keys_str_mv AT addubey stackingeffectofcarbonglassfiberduringdrillingoperationoflaminatedpolymercomposite
AT jkumar stackingeffectofcarbonglassfiberduringdrillingoperationoflaminatedpolymercomposite
AT pkyratsis stackingeffectofcarbonglassfiberduringdrillingoperationoflaminatedpolymercomposite
AT rkverma stackingeffectofcarbonglassfiberduringdrillingoperationoflaminatedpolymercomposite