Mechanical, dielectric, and hydrophobicity behavior of coconut shell biochar toughened Caryota urens natural fiber reinforced epoxy composite

High toughness epoxy bio‐composites were prepared using Caryota urens fiber and biochar particle for light weight and low cost engineering applications. The main aim of this research was to study the effect of adding biochar along with C. urens fiber in epoxy resin composite and its properties. The...

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Published inPolymer composites Vol. 43; no. 1; pp. 493 - 502
Main Authors Jayabalakrishnan, D, Prabhu, P, Mohamed, Iqbal S, Mugendiran, V, Ravi, S, Arun Prakash V R
Format Journal Article
LanguageEnglish
Published Hoboken, USA John Wiley & Sons, Inc 01.01.2022
Blackwell Publishing Ltd
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Abstract High toughness epoxy bio‐composites were prepared using Caryota urens fiber and biochar particle for light weight and low cost engineering applications. The main aim of this research was to study the effect of adding biochar along with C. urens fiber in epoxy resin composite and its properties. The biochar used in this present study was prepared from coconut shell using pyrolysis process. The composites prepared with 5 vol% of biochar gives highest tensile strength and modulus of 172 MPa and 6.7 GPa. Similarly, the biochar of 7 vol% in epoxy resin reduced the wear volume to the greater extend. Moreover, a highest dielectric constant and loss factor of 6.2, 1.6, and a thermal conductivity of 0.33 W/mK with high hydrophobic contact angle of 70° was observed for composite made using 7 vol% of biochar. These improved dielectric, mechanical, barrier and tribological properties composite could be used as microwave shielding material in electronic gadgets, signal processing units and other telecommunication devices as shielding material with good mechanical properties required. Stages in biochar production.
AbstractList High toughness epoxy bio‐composites were prepared using Caryota urens fiber and biochar particle for light weight and low cost engineering applications. The main aim of this research was to study the effect of adding biochar along with C. urens fiber in epoxy resin composite and its properties. The biochar used in this present study was prepared from coconut shell using pyrolysis process. The composites prepared with 5 vol% of biochar gives highest tensile strength and modulus of 172 MPa and 6.7 GPa. Similarly, the biochar of 7 vol% in epoxy resin reduced the wear volume to the greater extend. Moreover, a highest dielectric constant and loss factor of 6.2, 1.6, and a thermal conductivity of 0.33 W/mK with high hydrophobic contact angle of 70° was observed for composite made using 7 vol% of biochar. These improved dielectric, mechanical, barrier and tribological properties composite could be used as microwave shielding material in electronic gadgets, signal processing units and other telecommunication devices as shielding material with good mechanical properties required.
High toughness epoxy bio‐composites were prepared using Caryota urens fiber and biochar particle for light weight and low cost engineering applications. The main aim of this research was to study the effect of adding biochar along with C. urens fiber in epoxy resin composite and its properties. The biochar used in this present study was prepared from coconut shell using pyrolysis process. The composites prepared with 5 vol% of biochar gives highest tensile strength and modulus of 172 MPa and 6.7 GPa. Similarly, the biochar of 7 vol% in epoxy resin reduced the wear volume to the greater extend. Moreover, a highest dielectric constant and loss factor of 6.2, 1.6, and a thermal conductivity of 0.33 W/mK with high hydrophobic contact angle of 70° was observed for composite made using 7 vol% of biochar. These improved dielectric, mechanical, barrier and tribological properties composite could be used as microwave shielding material in electronic gadgets, signal processing units and other telecommunication devices as shielding material with good mechanical properties required.
High toughness epoxy bio‐composites were prepared using Caryota urens fiber and biochar particle for light weight and low cost engineering applications. The main aim of this research was to study the effect of adding biochar along with C. urens fiber in epoxy resin composite and its properties. The biochar used in this present study was prepared from coconut shell using pyrolysis process. The composites prepared with 5 vol% of biochar gives highest tensile strength and modulus of 172 MPa and 6.7 GPa. Similarly, the biochar of 7 vol% in epoxy resin reduced the wear volume to the greater extend. Moreover, a highest dielectric constant and loss factor of 6.2, 1.6, and a thermal conductivity of 0.33 W/mK with high hydrophobic contact angle of 70° was observed for composite made using 7 vol% of biochar. These improved dielectric, mechanical, barrier and tribological properties composite could be used as microwave shielding material in electronic gadgets, signal processing units and other telecommunication devices as shielding material with good mechanical properties required. Stages in biochar production.
Author P., Prabhu
V., Mugendiran
D., Jayabalakrishnan
S., Mohamed Iqbal
V. R., Arun Prakash
S., Ravi
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Snippet High toughness epoxy bio‐composites were prepared using Caryota urens fiber and biochar particle for light weight and low cost engineering applications. The...
High toughness epoxy bio‐composites were prepared using Caryota urens fiber and biochar particle for light weight and low cost engineering applications. The...
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SubjectTerms biochar
Composite materials
Contact angle
Electronic devices
Epoxy resins
Fiber composites
Fiber reinforced polymers
Hydrophobicity
Mechanical properties
natural fiber
Pyrolysis
Shielding
Signal processing
Tensile strength
Thermal conductivity
Tribology
water absorption
Weight reduction
wood‐plastic composite
Title Mechanical, dielectric, and hydrophobicity behavior of coconut shell biochar toughened Caryota urens natural fiber reinforced epoxy composite
URI https://onlinelibrary.wiley.com/doi/abs/10.1002%2Fpc.26393
https://www.proquest.com/docview/2617686923
Volume 43
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