Sustainable biocomposites from pyrolyzed lignin and recycled nylon 6 with enhanced flame retardant behavior: Studies on manufacturing and quality performance evaluation

Abstract The recycled nylon (RN)‐based biocomposites were fabricated by adding 25% lignin biocarbon. Lignin was pyrolyzed at 300, 600, and 900°C to produce Lig300, Lig600, and Lig900 biocarbon (BioC) samples, respectively. Higher functionality of Lig600 (unlike Lig900) allowed for improved interfaci...

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Main Authors: Victoria Muir, Neelima Tripathi, Arturo Rodriguez‐Uribe, Amar K. Mohanty, Manjusri Misra
Format: Article
Language:English
Published: Wiley 2024-07-01
Series:SPE Polymers
Subjects:
Online Access:https://doi.org/10.1002/pls2.10123
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author Victoria Muir
Neelima Tripathi
Arturo Rodriguez‐Uribe
Amar K. Mohanty
Manjusri Misra
author_facet Victoria Muir
Neelima Tripathi
Arturo Rodriguez‐Uribe
Amar K. Mohanty
Manjusri Misra
author_sort Victoria Muir
collection DOAJ
description Abstract The recycled nylon (RN)‐based biocomposites were fabricated by adding 25% lignin biocarbon. Lignin was pyrolyzed at 300, 600, and 900°C to produce Lig300, Lig600, and Lig900 biocarbon (BioC) samples, respectively. Higher functionality of Lig600 (unlike Lig900) allowed for improved interfacial interaction with the polar nylon matrix. Mechanical properties were further enhanced for RN_Lig600 composite with enhanced flexural and tensile strength by 18% and 8%, respectively, compared to neat polymer (RN). RN_Lig900 composite showed enhancement in tensile and flexural modulus by 32.6% and 51.1%, respectively, compared to RN. Incorporation of Lig900 in RN matrix resulted in 77.9% reduction in burning rate compared to RN. These results show the potential of lignin BioC as a filler in RN composites for flame retardant applications and mechanical enhancement, such as in the automotive industry. Highlights Effect of pyrolysis temperatures (300, 600, and 900°C) on lignin biomass. Composites prepared from recycled polyamide 6 from carpet waste and biocarbon. Improved interfacial adhesion of 600°C biocarbon with recycled nylon matrix. Enhanced thermal, mechanical properties, reduced flammability of biocomposites. Sustainable biocomposites with 900°C biocarbon reduced burning rate by 78%.
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spelling doaj.art-c6d48924a93346a098b10e42e048b51a2024-07-11T16:04:54ZengWileySPE Polymers2690-38572024-07-015327729210.1002/pls2.10123Sustainable biocomposites from pyrolyzed lignin and recycled nylon 6 with enhanced flame retardant behavior: Studies on manufacturing and quality performance evaluationVictoria Muir0Neelima Tripathi1Arturo Rodriguez‐Uribe2Amar K. Mohanty3Manjusri Misra4Bioproducts Discovery and Development Centre, Department of Plant Agriculture Crop Science Building, University of Guelph Guelph Ontario CanadaBioproducts Discovery and Development Centre, Department of Plant Agriculture Crop Science Building, University of Guelph Guelph Ontario CanadaBioproducts Discovery and Development Centre, Department of Plant Agriculture Crop Science Building, University of Guelph Guelph Ontario CanadaBioproducts Discovery and Development Centre, Department of Plant Agriculture Crop Science Building, University of Guelph Guelph Ontario CanadaBioproducts Discovery and Development Centre, Department of Plant Agriculture Crop Science Building, University of Guelph Guelph Ontario CanadaAbstract The recycled nylon (RN)‐based biocomposites were fabricated by adding 25% lignin biocarbon. Lignin was pyrolyzed at 300, 600, and 900°C to produce Lig300, Lig600, and Lig900 biocarbon (BioC) samples, respectively. Higher functionality of Lig600 (unlike Lig900) allowed for improved interfacial interaction with the polar nylon matrix. Mechanical properties were further enhanced for RN_Lig600 composite with enhanced flexural and tensile strength by 18% and 8%, respectively, compared to neat polymer (RN). RN_Lig900 composite showed enhancement in tensile and flexural modulus by 32.6% and 51.1%, respectively, compared to RN. Incorporation of Lig900 in RN matrix resulted in 77.9% reduction in burning rate compared to RN. These results show the potential of lignin BioC as a filler in RN composites for flame retardant applications and mechanical enhancement, such as in the automotive industry. Highlights Effect of pyrolysis temperatures (300, 600, and 900°C) on lignin biomass. Composites prepared from recycled polyamide 6 from carpet waste and biocarbon. Improved interfacial adhesion of 600°C biocarbon with recycled nylon matrix. Enhanced thermal, mechanical properties, reduced flammability of biocomposites. Sustainable biocomposites with 900°C biocarbon reduced burning rate by 78%.https://doi.org/10.1002/pls2.10123extrusionflame/fire retardancymechanical propertiespolymer‐matrix composites (PMCs)
spellingShingle Victoria Muir
Neelima Tripathi
Arturo Rodriguez‐Uribe
Amar K. Mohanty
Manjusri Misra
Sustainable biocomposites from pyrolyzed lignin and recycled nylon 6 with enhanced flame retardant behavior: Studies on manufacturing and quality performance evaluation
SPE Polymers
extrusion
flame/fire retardancy
mechanical properties
polymer‐matrix composites (PMCs)
title Sustainable biocomposites from pyrolyzed lignin and recycled nylon 6 with enhanced flame retardant behavior: Studies on manufacturing and quality performance evaluation
title_full Sustainable biocomposites from pyrolyzed lignin and recycled nylon 6 with enhanced flame retardant behavior: Studies on manufacturing and quality performance evaluation
title_fullStr Sustainable biocomposites from pyrolyzed lignin and recycled nylon 6 with enhanced flame retardant behavior: Studies on manufacturing and quality performance evaluation
title_full_unstemmed Sustainable biocomposites from pyrolyzed lignin and recycled nylon 6 with enhanced flame retardant behavior: Studies on manufacturing and quality performance evaluation
title_short Sustainable biocomposites from pyrolyzed lignin and recycled nylon 6 with enhanced flame retardant behavior: Studies on manufacturing and quality performance evaluation
title_sort sustainable biocomposites from pyrolyzed lignin and recycled nylon 6 with enhanced flame retardant behavior studies on manufacturing and quality performance evaluation
topic extrusion
flame/fire retardancy
mechanical properties
polymer‐matrix composites (PMCs)
url https://doi.org/10.1002/pls2.10123
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