Design, synthesis, and application of novel flame retardants derived from biomass

Biomass represents an abundant and relatively low cost carbon resource that can be utilized to produce platform chemicals such as levulinic acid. Novel oligomeric flame retardants, the poly(MDP-PDCP-MA)s (PMPMs), were designed and synthesized using diphenolic acid as one of the raw materials, which...

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Main Authors: Yan Liu, Yan Zhang, Zhengping Fang
Format: Article
Language:English
Published: North Carolina State University 2012-11-01
Series:BioResources
Subjects:
Online Access:http://www.ncsu.edu/bioresources/BioRes_07/BioRes_07_4_4914_Liu_ZF_Design_Novel_Flame_Retard_Biomass_2873.pdf
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spelling doaj-8c24411bc2234c3a94b76061ea8725c02020-11-24T22:40:48ZengNorth Carolina State UniversityBioResources1930-21262012-11-017449144925Design, synthesis, and application of novel flame retardants derived from biomassYan LiuYan ZhangZhengping FangBiomass represents an abundant and relatively low cost carbon resource that can be utilized to produce platform chemicals such as levulinic acid. Novel oligomeric flame retardants, the poly(MDP-PDCP-MA)s (PMPMs), were designed and synthesized using diphenolic acid as one of the raw materials, which is derived from levulinic acid. To change the molar ratio of reactants, a series of PMPM samples with different nitrogen contents were obtained and characterized by FTIR and solid-state 13C NMR spectroscopy. The solubility test and thermogravimetric analysis (TGA) indicated a good solvent-resistant property and thermal stability. The flame retardancy and thermal behavior of ABS with 30% loading of different PMPM samples were investigated by limiting oxygen index test (LOI), TGA, and microscale combustion colorimeter (MCC). The results showed that PMPMs are effective charring agents that can increase the thermal stability and flame retardancy of ABS. Scanning electron microscopy (SEM) observations of the residue of ABS/PMPM blends indicated the compact charred layer formed was responsible for improving the thermal stability and char yield of ABS with low nitrogen content in PMPM-1 flame retardant.http://www.ncsu.edu/bioresources/BioRes_07/BioRes_07_4_4914_Liu_ZF_Design_Novel_Flame_Retard_Biomass_2873.pdfDiphenolic acidFlame retardantSynthesisBiomassAcrylonitrile butadiene styrene
collection DOAJ
language English
format Article
sources DOAJ
author Yan Liu
Yan Zhang
Zhengping Fang
spellingShingle Yan Liu
Yan Zhang
Zhengping Fang
Design, synthesis, and application of novel flame retardants derived from biomass
BioResources
Diphenolic acid
Flame retardant
Synthesis
Biomass
Acrylonitrile butadiene styrene
author_facet Yan Liu
Yan Zhang
Zhengping Fang
author_sort Yan Liu
title Design, synthesis, and application of novel flame retardants derived from biomass
title_short Design, synthesis, and application of novel flame retardants derived from biomass
title_full Design, synthesis, and application of novel flame retardants derived from biomass
title_fullStr Design, synthesis, and application of novel flame retardants derived from biomass
title_full_unstemmed Design, synthesis, and application of novel flame retardants derived from biomass
title_sort design, synthesis, and application of novel flame retardants derived from biomass
publisher North Carolina State University
series BioResources
issn 1930-2126
publishDate 2012-11-01
description Biomass represents an abundant and relatively low cost carbon resource that can be utilized to produce platform chemicals such as levulinic acid. Novel oligomeric flame retardants, the poly(MDP-PDCP-MA)s (PMPMs), were designed and synthesized using diphenolic acid as one of the raw materials, which is derived from levulinic acid. To change the molar ratio of reactants, a series of PMPM samples with different nitrogen contents were obtained and characterized by FTIR and solid-state 13C NMR spectroscopy. The solubility test and thermogravimetric analysis (TGA) indicated a good solvent-resistant property and thermal stability. The flame retardancy and thermal behavior of ABS with 30% loading of different PMPM samples were investigated by limiting oxygen index test (LOI), TGA, and microscale combustion colorimeter (MCC). The results showed that PMPMs are effective charring agents that can increase the thermal stability and flame retardancy of ABS. Scanning electron microscopy (SEM) observations of the residue of ABS/PMPM blends indicated the compact charred layer formed was responsible for improving the thermal stability and char yield of ABS with low nitrogen content in PMPM-1 flame retardant.
topic Diphenolic acid
Flame retardant
Synthesis
Biomass
Acrylonitrile butadiene styrene
url http://www.ncsu.edu/bioresources/BioRes_07/BioRes_07_4_4914_Liu_ZF_Design_Novel_Flame_Retard_Biomass_2873.pdf
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AT zhengpingfang designsynthesisandapplicationofnovelflameretardantsderivedfrombiomass
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