Orientation-dependent tensile deformation and damage of a T700 carbon fiber/epoxy composite: A synchrotron-based study

Bie, B.X.; Huang, J.Y.; Fan, D.; Sun, Tao; Fezzaa, Kamel; Xiao, Xianghui; Qi, Mei; Luo, Sheng‐Nian

doi:10.1016/j.carbon.2017.05.083

Cited by 45 publications

(15 citation statements)

References 34 publications

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“…X-ray computed tomography (XCT) provides three-dimensional observations of microstructure and may be applied during mechanical testing. Since the initial studies of Guvenilir (Guvenilir et al, 1997), in situ XCT has been applied to a wide range of materials including trabecular bone (Bay et al, 1999), wood (Forsberg et al, 2008), gypsum (Bouterf et al, 2014), graphite (Hodgkins et al, 2006; Marrow et al, 2016), ceramic matrix composites (Gao et al, 2016; Arhatari et al, 2017), and polymer matrix composites (Bie et al, 2017; Emerson et al, 2017; Garcea et al, 2017). The relative deformations between tomographs can be measured by digital volume correlation (DVC), which is a volumetric extension of the digital image correlation (DIC) method.…”

Section: Introductionmentioning

confidence: 99%

In situ Observation of Compression Damage in a Three-Dimensional Braided Carbon Fiber Reinforced Carbon and Silicon Carbide (C/C-SiC) Ceramic Composite

et al. 2018

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Deformation and mechanical damage in a three-dimensional braided carbon fiber reinforced carbon and silicon carbide ceramic composite, subjected to compressive loading, has been studied in situ by laboratory X-ray computed tomography. Dimensional change was measured and damage visualized by digital volume correlation analysis of tomographs. Cracks nucleated from defects within the fiber bundles and tended to propagate along the fiber bundle/matrix interface. For longitudinal compression, parallel to the fiber bundles, the initial elastic modulus decreased with increasing compressive strain while significant transverse tensile strains developed due to distributed cracking. For transverse compression, perpendicular to the fiber bundles, the compressive elastic modulus was effectively constant; the tensile strains developed along the fiber direction were small, whereas macroscopic fracture between the fiber bundles caused very large bulk tensile strain perpendicular to the loading. The observations suggest that the mechanical strength might be improved through control of pre-existing defects and application of stitch fibers in the transverse direction.

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Section: Introductionmentioning

confidence: 99%

In situ Observation of Compression Damage in a Three-Dimensional Braided Carbon Fiber Reinforced Carbon and Silicon Carbide (C/C-SiC) Ceramic Composite

et al. 2018

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“…Furthermore, these values are related and comply with the tensile properties of natural fiber composites [48], while the difference between the precursor fiber in tensile strength is ascribed to their slightly different microstructure, which is affected by extrusion speed, temperature, and residence time of the materials in the extrusion line and the size of the spinneret [49]. Further, the tensile deformation and damage of fibers are strongly affected by both defects and orientation [50], while the chemical bonding has a severe impact on stiffness and tensile strength of fiber network [51].…”

Section: Tensile Testing Of Precursor Fibersmentioning

confidence: 53%

Synthesis and Processing of Melt Spun Materials from Esterified Lignin with Lactic Acid

et al. 2019

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In this study, the carbon fiber manufacturing process is investigated, using high-density polyethylene (HDPE) and esterified lignin either with lactic acid (LA) or with poly(lactic acid) (PLA) as precursors. More specifically, lignin was modified using either LA or PLA in order to increase its chemical affinity with HDPE. The modified compounds were continuously melt spun to fibrous materials by blending with HDPE in order to fabricate a carbon fiber precursor. The obtained products were characterized with respect to their morphology, as well as their structure and chemical composition. Moreover, an assessment of both physical and structural transformations after modification of lignin with LA and PLA was performed in order to evaluate the spinning ability of the composite fibers, as well as the thermal processing to carbon fibers. This bottom–up approach seems to be able to provide a viable route considering large scale production in order to transform lignin in value-added product. Tensile tests revealed that the chemical lignin modification allowed an enhancement in its spinning ability due to its compatibility improvement with the commercial low-cost and thermoplastic HDPE polymer. Finally, stabilization and carbonization thermal processing was performed in order to obtain carbon fibers.

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“…Carbon fiber reinforced resin composites have attracted extensive attention in many fields, such as aerospace, weapons, rail transportation, marine and sports, owing to their advantages of low density, high specific strength, high thermal resistance, high abrasion resistance and relative flexibility. [1][2][3][4][5] With the rapid development of technology, the requirements for the service life, adaptability and transmission stability of such composites have become increasingly demanding in the applications of subways, high-speed trains and deep-sea oil drilling. 6,7 It is universally known that the properties of carbon fiber reinforced resin composites are primarily depended on the adhesion between fiber/matrix.…”

Section: Introductionmentioning

confidence: 99%

Improvements of mechanical and tribological properties of carbon fiber reinforced composites via chemically grafting MA onto MnO₂ nanosheets as interphase

Fei

Liu

Luo

et al. 2020

Journal of Composite Materials

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To intensify the interfacial properties between carbon fiber (CF) and resin without sacrificing fiber, a new type of carbon fiber reinforced resin composite was designed and fabricated with MnO2 nanosheets and melamine (MA) as interphase. The MnO2 nanosheets were uniformly grown on the carbon fiber via hydrothermal method. And then MA was grafted on the MnO2 nanosheets to from chemical bond with resin by a simple bath shock method. The experiment results show that the flexural and tensile strength of the composite reinforced by CF-MnO2-MA increased by 24.1% and 14.5% compared to that of CF, respectively. And the wear rate is reduced by about 29.6%. In summary, the improvement of mechanical and frictional properties of the composite is related to the synergetic reinforcement in mechanical interlocking and chemical bonding of MnO2 nanosheets and MA.

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Orientation-dependent tensile deformation and damage of a T700 carbon fiber/epoxy composite: A synchrotron-based study

Cited by 45 publications

References 34 publications

In situ Observation of Compression Damage in a Three-Dimensional Braided Carbon Fiber Reinforced Carbon and Silicon Carbide (C/C-SiC) Ceramic Composite

In situ Observation of Compression Damage in a Three-Dimensional Braided Carbon Fiber Reinforced Carbon and Silicon Carbide (C/C-SiC) Ceramic Composite

Synthesis and Processing of Melt Spun Materials from Esterified Lignin with Lactic Acid

Improvements of mechanical and tribological properties of carbon fiber reinforced composites via chemically grafting MA onto MnO₂ nanosheets as interphase

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Orientation-dependent tensile deformation and damage of a T700 carbon fiber/epoxy composite: A synchrotron-based study

Cited by 45 publications

References 34 publications

In situ Observation of Compression Damage in a Three-Dimensional Braided Carbon Fiber Reinforced Carbon and Silicon Carbide (C/C-SiC) Ceramic Composite

In situ Observation of Compression Damage in a Three-Dimensional Braided Carbon Fiber Reinforced Carbon and Silicon Carbide (C/C-SiC) Ceramic Composite

Synthesis and Processing of Melt Spun Materials from Esterified Lignin with Lactic Acid

Improvements of mechanical and tribological properties of carbon fiber reinforced composites via chemically grafting MA onto MnO2 nanosheets as interphase

Contact Info

Product

Resources

About

Improvements of mechanical and tribological properties of carbon fiber reinforced composites via chemically grafting MA onto MnO₂ nanosheets as interphase