Mechanical, Dielectric and Thermal Stability of Silicon Oxynitride Nanoparticle Dispersed Tamarind Fiber-Reinforced Epoxy Bio-composite

G, None Suganya; Kumar, Sanjeev; Nagaraj, M.; Velumani, A.

doi:10.1007/s12633-023-02320-x

Cited by 5 publications

(3 citation statements)

References 29 publications

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“…The primary objective of hybridization is to overcome the deficiency of a single fiber and attain sustainability with low cost and enhanced material properties 26,74–76 . In general, NFRHCs are fabricated by combining two different natural fibers or natural synthetic fiber combos that possess greater mechanical strength, resilience to high temperatures, chemical stability, nontoxicity, and thermal and acoustic insulation 74,77,78 . Although the hybridization of natural fibers with synthetic fibers can greatly enhance mechanical performance and water resistance, there are some disadvantages associated with the release of toxic agents 26,79,80 .…”

Section: Mechanical Performance Of Natural Fiber Reinforced Hybrid Co...mentioning

confidence: 99%

“…26,[74][75][76] In general, NFRHCs are fabricated by combining two different natural fibers or natural synthetic fiber combos that possess greater mechanical strength, resilience to high temperatures, chemical stability, nontoxicity, and thermal and acoustic insulation. 74,77,78 Although the hybridization of natural fibers with synthetic fibers can greatly enhance mechanical performance and water resistance, there are some disadvantages associated with the release of toxic agents. 26,79,80 Hence, to overcome these issues, hybridizing natural fibers with other natural fibers is an initial solution with a low price, environmental effects, and superior sustainability.…”

Section: Effect Of Hybridization In Nfrcsmentioning

confidence: 99%

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Effect of hybridization on natural fiber reinforced polymer composite materials – A review

2023

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This review explores the hybridization effect of natural fiber‐reinforced composites (NFRCs) to reduce energy consumption and environmental pollution. Although natural fibers offer several advantages over synthetic fibers, such as biodegradability, lightweight, and low cost, their application in NFRCs is challenging due to inherent issues such as variable fiber quality, constrained mechanical properties, water absorption, and poor thermal stability. However, recent research has made significant progress in addressing these issues, resulting in better NFRCs. This article surveys the latest developments in plant‐based NFRCs, focusing on methods and innovations to enhance their performance through fiber modification, hybridization, incorporation of lignocellulosic fillers, and fabrication techniques for mechanical, sound absorption, and wear performance. It also discusses the expanding uses of NFRCs in various industrial sectors and the sustainability of plant‐based NFRCs using life‐cycle assessment.

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Section: Mechanical Performance Of Natural Fiber Reinforced Hybrid Co...mentioning

confidence: 99%

Section: Effect Of Hybridization In Nfrcsmentioning

confidence: 99%

Effect of hybridization on natural fiber reinforced polymer composite materials – A review

2023

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“…One of these materials that offers simplicity in processing, increased productivity, and lower costs is polymer composite material. The qualities of the composites, which are custom-made materials with exceptional quality, may be changed by adjusting the reinforcing and matrix phases (Velmurugan et al, 2023a;Velmurugan and Natrayan, 2023). Natural fibers offer multiple benefits over artificial fibers because of their abundance, accessibility, and affordability.…”

Section: Introductionmentioning

confidence: 99%

Statistical experiment analysis of wear and mechanical behaviour of abaca/sisal fiber-based hybrid composites under liquid nitrogen environment

Natrayan

Surakasi²,

Paramasivam

et al. 2023

Front. Mater.

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Composite materials are increasingly replacing synthetic fiber combinations in various applications. However, certain extreme environments on Earth and in space require structures to operate under low temperatures, specifically cryogenic conditions, which can significantly affect material reactions. Therefore, the main focus of this study is to develop and evaluate hybridized biocomposites, specifically assessing their tensile, bending, and impact strengths in a controlled liquid nitrogen environment (77 K). Utilizing the Taguchi optimization method, the statistical analysis of wearing characteristics was carried out utilizing cryogenic treatment hours, load, sliding distance, and weight percentage of abaca and sisal fibers. When 20 percent abaca and sisal were mixed, tensile performance increased from 28.96 to 36.58 MPa. Likewise, the same mixture increased bending strength from 59.63 to 75.68 MPa, and impact strength improved from 59.36 to 71.25 J/m. The cryogenic treatment of composite materials for 15–30 min improved the mechanical characteristics of the materials by enhancing the binding between reinforcements and substrate. The Taguchi 27 test outcomes showed a decreased friction coefficient of 7.79 × 105 mm3/Nm in the 10th trial with 30 min of cold working, 10% hybrid fibers, 600 m slide distance, and a 4 N load combination. Frictional coefficient data indicated the lowest rate during the third experiment with 15 min of cryogenic treatment, 10% hybrid fibers, 1,500 m slide length, and a 12 N load combination. The microstructural analysis of the fractured specimen was evaluated by scanning electron microscopy. Finally, such composite materials are employed in liquid propellant tanks, satellites, spaceships, rocket constructions, aeroplane components at cruising altitudes, and other applications.

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Effect of Adding Rice Husk Ash Functional Silicon Additives on Flammability Wear and Thermal Stability of Ramie-Epoxy Composite

Kumar

Lakshmipathi²,

Nagabhooshanam

et al. 2023

Silicon

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Mechanical, Dielectric and Thermal Stability of Silicon Oxynitride Nanoparticle Dispersed Tamarind Fiber-Reinforced Epoxy Bio-composite

Cited by 5 publications

References 29 publications

Effect of hybridization on natural fiber reinforced polymer composite materials – A review

Effect of hybridization on natural fiber reinforced polymer composite materials – A review

Statistical experiment analysis of wear and mechanical behaviour of abaca/sisal fiber-based hybrid composites under liquid nitrogen environment

Effect of Adding Rice Husk Ash Functional Silicon Additives on Flammability Wear and Thermal Stability of Ramie-Epoxy Composite

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