Javascript must be enabled to continue!
The comparison of low‐velocity impact resistance of aluminum/carbon and glass fiber metal laminates
View through CrossRef
This article presents the low‐velocity impact response of fiber metal laminates, based on aluminum with a polymer composite, reinforced with carbon and glass fibers. The influence of fiber orientations as well as analysis of load‐time history, damage area and damage depth in relation to different energy levels is presented and discussed. The obtained results made it possible to determine characteristic points, which may be responsible for particular stages of the laminate structure degradation process: local microcracks and delaminations, leading to a decrease in the stiffness of the laminate, as well as further damage represented by laminate cracks and its perforation. The damage mechanism of fiber metal laminates is rather complex. In case of carbon fiber laminates, a higher tendency to perforation was observed in comparison to laminates containing glass fibers. Delaminations in composite interlayers and at the metal/composite interface constitute a significant damage form of fiber metal laminates resulting from dynamic loads. Fiber metal laminates with glass fibers absorb energy mainly through plastic deformation as well as through delamination initiation and propagation, whereas laminates containing carbon fibers absorb energy for penetration and perforation of the laminate. POLYM. COMPOS. 37:1056–1063, 2016. © 2014 Society of Plastics Engineers
Title: The comparison of low‐velocity impact resistance of aluminum/carbon and glass fiber metal laminates
Description:
This article presents the low‐velocity impact response of fiber metal laminates, based on aluminum with a polymer composite, reinforced with carbon and glass fibers.
The influence of fiber orientations as well as analysis of load‐time history, damage area and damage depth in relation to different energy levels is presented and discussed.
The obtained results made it possible to determine characteristic points, which may be responsible for particular stages of the laminate structure degradation process: local microcracks and delaminations, leading to a decrease in the stiffness of the laminate, as well as further damage represented by laminate cracks and its perforation.
The damage mechanism of fiber metal laminates is rather complex.
In case of carbon fiber laminates, a higher tendency to perforation was observed in comparison to laminates containing glass fibers.
Delaminations in composite interlayers and at the metal/composite interface constitute a significant damage form of fiber metal laminates resulting from dynamic loads.
Fiber metal laminates with glass fibers absorb energy mainly through plastic deformation as well as through delamination initiation and propagation, whereas laminates containing carbon fibers absorb energy for penetration and perforation of the laminate.
POLYM.
COMPOS.
37:1056–1063, 2016.
© 2014 Society of Plastics Engineers.
Related Results
Unveiling the third dimension of glass
Unveiling the third dimension of glass
Glass as a material has always fascinated architects. Its inherent transparency has given us the ability to create diaphanous barriers between the interior and the exterior that al...
Effect of Surface Roughness on Mechanical Properties of Aluminium-Carbon Laminates Composites
Effect of Surface Roughness on Mechanical Properties of Aluminium-Carbon Laminates Composites
Fiber Metal laminates, FML, is a combination of metal with fiber/resin laminates and it is a well-known application in composite laminates due to its dimension stability and proper...
Repeated Low-Velocity Impact Properties of Hybrid Woven Composite Laminates
Repeated Low-Velocity Impact Properties of Hybrid Woven Composite Laminates
Hybrid woven composite materials and structures have important application value in modern engineering because of their high specific stiffness, specific strength and excellent imp...
Estimation of fastener pull-through resistance of composite laminates based on generalized regression neural network
Estimation of fastener pull-through resistance of composite laminates based on generalized regression neural network
The fastener pull-through resistance is a key performance index of composite laminates used for engineering application, and increasing research attention is being paid to developi...
Innovative Hole Making Process in Woven Composite Laminates
Innovative Hole Making Process in Woven Composite Laminates
Abstract
This paper proposes an innovative hole making manufacturing method for the composite laminates. The laminates were fabricated using heated vacuum assisted r...
Performance of the laminated glass systems under static and blast pressure loading
Performance of the laminated glass systems under static and blast pressure loading
[ACCESS RESTRICTED TO THE UNIVERSITY OF MISSOURI AT AUTHOR'S REQUEST.] The increase of explosions threats toward civilian targets has raised concerns about a building's safety. Lam...
Evolution of Antimicrobial Resistance in Community vs. Hospital-Acquired Infections
Evolution of Antimicrobial Resistance in Community vs. Hospital-Acquired Infections
Abstract
Introduction
Hospitals are high-risk environments for infections. Despite the global recognition of these pathogens, few studies compare microorganisms from community-acqu...
Surface Pretreatment and Fabrication Technology of Braided Carbon Fiber Rope Aluminum Matrix Composite
Surface Pretreatment and Fabrication Technology of Braided Carbon Fiber Rope Aluminum Matrix Composite
Carbon fiber is mainly distributed in the shape of short fibers and continuous fiber bundles as the reinforcing phase in metal matrix composites, and it is seldom studied as braide...

