Preparation of electroless copper coated glass fiber and piezoresistive properties of copper coated glass fiber reinforced plastics

Zuo, Jianhong; Chen, Heng; Luo, Cheng; Chen, Dazhu

doi:10.1016/j.apsusc.2015.04.210

Cited by 16 publications

(9 citation statements)

References 11 publications

(16 reference statements)

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“…Coating the glass fibers with conductive materials is a good strategy to endow them with electrical conductivity. Because of their high conductivity, metallic coatings have received much attention and extensive studies . Some metals such as copper, aluminum, and nickel have been explored as conductive coatings of glass fibers. , However, metal coatings usually have poor flexibility, high density, and poor corrosion resistance, which limit their practical applications.…”

Section: Introductionmentioning

confidence: 99%

Conductive Nanocarbon-Coated Glass Fibers

et al. 2020

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Flexible conductive glass fibers have received significant attention due to their potential applications in electronics, semiconductors, batteries, and automobile and aerospace industries. In this study, highly flexible conductive fibers composed of internal glass fibers and external nanocarbon coatings were fabricated. A conductive nanocarbon-coated glass fiber (NCGF) was prepared by a simple polymer pyrolysis deposition method. The resistance per centimeter of the fiber is approximately 10 5 Ω, and the conductivity of the fiber nanocarbon coating is approximately 10 5 S/ m. The coating is dense and extremely smooth, and the contact interface between the coating and the glass fiber is compact tightly. Meanwhile, the density functional theory (DFT) is used to further analyze the interface bonding between the coating and the glass fiber and the conductive mechanism of the nanocarbon-coated glass fiber.

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Section: Introductionmentioning

confidence: 99%

Conductive Nanocarbon-Coated Glass Fibers

et al. 2020

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“…Different coatings have different properties, and coating modification shows versatility in modifying the GF-surface properties. Customized coating methods [ 41 , 42 ], such as dip coating, the spraying method, electroplating [ 43 , 44 , 45 , 46 , 47 , 48 ], pyrolysis [ 49 , 50 , 51 ], electrophoretic deposition [ 52 , 53 , 54 ], and electrothermal shock [ 55 ], are currently used to modify GF.…”

Section: Surface Modification Methodsmentioning

confidence: 99%

“…In the past decade, metal coating materials have been widely investigated because of their good electrical conductivity and strong anti-interference ability, and they have been applied in many fields. Gold [ 71 ], silver [ 72 , 73 , 74 ], copper [ 48 ], cobalt [ 75 ], aluminum, and nickel [ 76 , 77 ] have been investigated as metal coatings for the GF surface. However, metal coatings also have disadvantages, such as poor flexibility, high density, and poor corrosion resistance.…”

Section: Surface Modification Methodsmentioning

confidence: 99%

“…In addition, through the XRD of a pattern of the product, the amorphous signals for glass fibers did not emerge, which indicated that a layer of copper was successfully deposited on the surface of the glass fibers via electroless plating. ( Figure 5 A(III)) [ 45 , 47 , 48 ]. Guo et al successfully prepared a continuously conducting two-dimensional glass fiber network containing nickel by electroless plating, and SEM and XRD patterns showed a uniform and more reduced mental nickel coating deposited on the glass fiber substrate( Figure 5 B(II)).…”

Section: Surface Modification Methodsmentioning

confidence: 99%

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Recent Progress in Modifications, Properties, and Practical Applications of Glass Fiber

Song

et al. 2023

Molecules

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As a new member of the silica-derivative family, modified glass fiber (MGF) has attracted extensive attention because of its excellent properties and potential applications. Surface modification of glass fiber (GF) greatly changes its performance, resulting in a series of changes to its surface structure, wettability, electrical properties, mechanical properties, and stability. This article summarizes the latest research progress in MGF, including the different modification methods, the various properties, and their advanced applications in different fields. Finally, the challenges and possible solutions were provided for future investigations of MGF.

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“…Before the deposition of a coating, the surface of a substrate is typically modified using strong acid and alkali to increase its roughness and improve its wetting behavior for obtaining a high-quality deposit. [32][33][34] To preserve the network structure, MF was not modified using a highly acidic or alkaline solution due to its poor stability under such harsh conditions. Herein, the introduction of GO into MF can improve the hydrophilicity of the network.…”

Section: Characterizations Of the Mf-based Networkmentioning

confidence: 99%

Stabilized multifunctional phase change materials based on carbonized Cu‐coated melamine foam/reduced graphene oxide framework for multiple energy conversion and storage

Zou

Xiang

et al. 2022

Carbon Energy

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The leakage of organic phase change materials (OPCMs) at temperatures above their melting point severely limits their large-scale application. The introduction of porous supports has been identified as an efficient leakageproofing method. In this study, a novel carbonized Cu-coated melamine foam (MF)/reduced graphene oxide (rGO) framework (MF/rGO/Cu-C) is constructed as a support for fabricating stabilized multifunctional OPCMs. MF serves as the supporting material, while rGO and Cu act as functional reinforcements. As a thermal energy storage material, polyethylene glycol (PEG) is encapsulated into MF/rGO/Cu-C through a vacuum-assisted impregnation method to obtain PEG@MF/rGO/Cu-C composite with excellent comprehensive performance. PEG@MF/rGO/Cu-C exhibits high phase change enthalpies of 148.3 J g −1 (melting) and 143.9 J g −1 (crystallization), corresponding to a high energy storage capability of 92.7%. Simultaneously, MF/rGO/Cu-C endues the composite with an enhanced thermal conductivity of 0.4621 W m −1 K −1 , which increases by 463% compared to that of PEG@MF. Furthermore, PEG@MF/rGO/Cu-C displays great light-to-thermal and electric-to-thermal conversion capabilities, thermal cycle stability, light-tothermal cycle stability, and shape stability, showing promising application prospects in different aspects.

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Preparation of electroless copper coated glass fiber and piezoresistive properties of copper coated glass fiber reinforced plastics

Cited by 16 publications

References 11 publications

Conductive Nanocarbon-Coated Glass Fibers

Conductive Nanocarbon-Coated Glass Fibers

Recent Progress in Modifications, Properties, and Practical Applications of Glass Fiber

Stabilized multifunctional phase change materials based on carbonized Cu‐coated melamine foam/reduced graphene oxide framework for multiple energy conversion and storage

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