The carbon fiber/epoxy composites toughened by fire-resistant glass fiber veils: Flammability and mechanical performance

Nie, Lei; Li, Jiawei; Yan, Xiaofei; Zhu, Chenkai; Yang, Xiaoming; Li, Yaobang; Qi, Dongming

doi:10.1177/00405175221147729

Cited by 3 publications

(1 citation statement)

References 49 publications

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“…Flame-Resistant Cotton [8], Carbon Fibre [9], FR Rayon fibres [10] are used by researchers to see their fire protective performance. Among all these fibres, Nomex IIIA comprises inherent properties of flame retardancy from its molecular structure [11].…”

Section: Introductionmentioning

confidence: 99%

Protective and Comfort Performance of Fire Protective Clothing

Islam,

Rathour,

Ibn Amin

et al. 2024

Text Leather Rev

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The study examined the fire protection performance of several woven products. Given that the comfort and fire protection properties of fire protective clothing (FPC) are opposite, it is important to consider the specific needs of firefighters when selecting the most suitable structure from various plain-woven derivatives, such as plain, basket, and ripstop. The yarn used was Nomex IIIA, which is a type of meta-aramid fibre. To achieve different thread densities, the pick density was adjusted while keeping the end density constant. The physical characteristics, thermal protective performance, thermal resistance, thermal conductivity, water vapour transmission rate and air permeability of all samples were assessed according to the appropriate standards. The goal was to identify the weave structure with the highest performance and the most optimal thread density. The basket weave structure was proposed as a fire protective clothing (FPC) having comfort qualities at a moderate level. Furthermore, increased density provided enhanced fire resistance, however, comfort must be sacrificed. Thus, to achieve a balance between fire protection and comfort, it was recommended to choose a thread density that is of an average level and the suggestion made by this research is to use the fabric as a basket weave design with an ends per inch of approximately 42, it is recommended to retain the pick density within the range of 46 with 44 tex Nomex IIIA yarn. The results of this study may be replicated in other designs using Nomex IIIA and comparable types of cloth and weave specifications.

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Section: Introductionmentioning

confidence: 99%

Protective and Comfort Performance of Fire Protective Clothing

Islam,

Rathour,

Ibn Amin

et al. 2024

Text Leather Rev

View full text Add to dashboard Cite

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The investigation of flame-retardant fiber mats for high performance composites: flame retardancy and structure performance

Zhu,

Li,

Huang

et al. 2024

Textile Research Journal

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The flame-retardant performance of carbon fiber reinforced composites serves as a critical metric for structural stability. Nonetheless, the prevalent methodologies for improving the flame retardancy of composites struggle to reconcile the dual objectives of flame retardancy and mechanical robustness, due in part to the constraints imposed by the conventional additive-based approach on the material interface. This study introduced a novel method involving a glass fiber mat, which was augmented with a polyurethane-based treatment integrated with flame-retardant substances, in particular ammonium polyphosphate and nickel hydroxide. This fiber mat was strategically applied to the composite surface, conferring both flame retardancy and enhanced structural resilience. The structure performance and flame retardancy of composites were characterized by Fourier transform infrared spectroscopy, scanning electron microscopy, and the cone calorimeter test. Experimental comparisons with nontreated controls indicated that the innovative composites exhibited a reduction in total heat release and total smoke production by 13.7% and 18.8%, respectively. Concurrently, a notable enhancement in mechanical properties was observed, with increases of 20.9% and 23.1% for tensile and flexural strength. This well-balanced performance is attributable to the structure design, with toughened glass fiber mats to protect the composite surfaces from structural failure, and flame-retardant agent composition for combustion resistance and smoke suppression. Consequently, the proposed integrative flame-retardant structural design, enriched with specific flame-retardant treatments, offers a promising avenue for fabricating high-performance composite materials with potential utility in the aviation and aerospace sectors.

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The Study of Functional Glass Fiber Veils for Composites Protection: Flame Resistance and Mechanical Performance

Zhu,

Qiao,

Wang

et al. 2024

J. Compos. Sci.

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The flame-retardant performance of carbon fiber-reinforced composites is crucial for ensuring structural stability. Traditional additive flame-retardant methods often struggle to balance structural integrity with fire resistance. Herein, Ni(OH)2 and 9,10-dihydro-9-oxa-10-phosphaphenanthrene-10-oxide (DOPO) were used as flame-retardant agents and mixed with glass fibers to construct the flame-retardant functional fiber veil which was used as the skin layer on the composite surface for fire protection. The structure performance and flame retardancy of composites were characterized via Fourier transform infrared spectroscopy (FTIR), scanning electron microscope (SEM), and a cone calorimeter test. The results confirmed that a flame-retardant glass fiber mat could effectively improve the flame-retardant and smoke-suppressive properties of the composite material. Due to the synergistic flame-retardant mechanism of Ni(OH)2 and DOPO, the C-N3-D2 composite with the highest LOI value of 32.3% has shown significant reduction in peak heat release rate (PHRR) and total smoke production (TSP) by 31.3% and 19.5%, respectively. In addition, due to flame-retardant agents only being employed in the skin layer of the composite, the core layer of a carbon fiber-reinforced structure could be protected without structure disruption. This approach maintained consistent interlayer shear strength, highlighting the effectiveness of using a flame-retardant fiber veil as a protective skin layer. This strategy could offer a viable solution for safeguarding high-performance composite materials from fire hazards without compromising their structural integrity.

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The carbon fiber/epoxy composites toughened by fire-resistant glass fiber veils: Flammability and mechanical performance

Cited by 3 publications

References 49 publications

Protective and Comfort Performance of Fire Protective Clothing

Protective and Comfort Performance of Fire Protective Clothing

The investigation of flame-retardant fiber mats for high performance composites: flame retardancy and structure performance

The Study of Functional Glass Fiber Veils for Composites Protection: Flame Resistance and Mechanical Performance

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