Complete waste recycling strategies for improving the accessibility of rice protein films

Although a plant protein film is a promising alternative to petroleum-based plastic films, the insoluble nature of some plant proteins still limits their use as film-forming materials. Alkali and thermal treatments are traditional methods to produce films from proteins with low solubility, which mig...

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Published inGreen chemistry : an international journal and green chemistry resource : GC Vol. 22; no. 2; pp. 49 - 53
Main Authors He, Chengxin, Hu, Yu, Wang, Yong, Liao, Yang, Xiong, Hua, Selomulya, Cordelia, Hu, Juwu, Zhao, Qiang
Format Journal Article
LanguageEnglish
Published Cambridge Royal Society of Chemistry 27.01.2020
Subjects
Biodegradability
Biodegradation
citrus peels
Folding structures
glycerol
Green chemistry
Haze
heat treatment
Keratin
Malic acid
Mechanical properties
Opacity
Pectin
pectins
petroleum
plastic film
Polymer films
Production methods
Proteins
recycling
Rice
rice protein
solubility
solvents
strength (mechanics)
Waste recycling
wastes
Water resistance
Water vapor
Wool
Online AccessGet full text
ISSN1463-9262
1463-9270
1463-9270
DOI10.1039/c9gc03354h

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Abstract Although a plant protein film is a promising alternative to petroleum-based plastic films, the insoluble nature of some plant proteins still limits their use as film-forming materials. Alkali and thermal treatments are traditional methods to produce films from proteins with low solubility, which might pose a risk of caustic burns and harmful substances. Three innovative strategies for the preparation of film-forming precursors were proposed in this study, namely, a new solvent system using malic acid, a resist folding structure modified by wool keratin, and an electrostatic bound structure by citrus peel pectin. Furthermore, we successfully prepared these three types of rice protein films using glycerin and thermal treatments. The results showed that the film prepared with malic acid has the lowest haze, opacity, and water vapor transmission ability, and the film containing wool keratin has the highest mechanical strength and water resistance. The addition of pectin provided more pronounced whiteness ( p < 0.01) and rapid biodegradability compared with that for the film produced under conventional alkaline conditions. This work demonstrates facile preparation methods for safer and skin-friendly rice protein films and enlightens broad interests in the potential towards completely environment-friendly plant protein films as well. Waste recycling-Green chemistry technologies for the preparation of fully environment-friendly rice protein films with improved accessibility have been developed.
AbstractList Although a plant protein film is a promising alternative to petroleum-based plastic films, the insoluble nature of some plant proteins still limits their use as film-forming materials. Alkali and thermal treatments are traditional methods to produce films from proteins with low solubility, which might pose a risk of caustic burns and harmful substances. Three innovative strategies for the preparation of film-forming precursors were proposed in this study, namely, a new solvent system using malic acid, a resist folding structure modified by wool keratin, and an electrostatic bound structure by citrus peel pectin. Furthermore, we successfully prepared these three types of rice protein films using glycerin and thermal treatments. The results showed that the film prepared with malic acid has the lowest haze, opacity, and water vapor transmission ability, and the film containing wool keratin has the highest mechanical strength and water resistance. The addition of pectin provided more pronounced whiteness (p < 0.01) and rapid biodegradability compared with that for the film produced under conventional alkaline conditions. This work demonstrates facile preparation methods for safer and skin-friendly rice protein films and enlightens broad interests in the potential towards completely environment-friendly plant protein films as well.
Although a plant protein film is a promising alternative to petroleum-based plastic films, the insoluble nature of some plant proteins still limits their use as film-forming materials. Alkali and thermal treatments are traditional methods to produce films from proteins with low solubility, which might pose a risk of caustic burns and harmful substances. Three innovative strategies for the preparation of film-forming precursors were proposed in this study, namely, a new solvent system using malic acid, a resist folding structure modified by wool keratin, and an electrostatic bound structure by citrus peel pectin. Furthermore, we successfully prepared these three types of rice protein films using glycerin and thermal treatments. The results showed that the film prepared with malic acid has the lowest haze, opacity, and water vapor transmission ability, and the film containing wool keratin has the highest mechanical strength and water resistance. The addition of pectin provided more pronounced whiteness ( p < 0.01) and rapid biodegradability compared with that for the film produced under conventional alkaline conditions. This work demonstrates facile preparation methods for safer and skin-friendly rice protein films and enlightens broad interests in the potential towards completely environment-friendly plant protein films as well. Waste recycling-Green chemistry technologies for the preparation of fully environment-friendly rice protein films with improved accessibility have been developed.
Although a plant protein film is a promising alternative to petroleum-based plastic films, the insoluble nature of some plant proteins still limits their use as film-forming materials. Alkali and thermal treatments are traditional methods to produce films from proteins with low solubility, which might pose a risk of caustic burns and harmful substances. Three innovative strategies for the preparation of film-forming precursors were proposed in this study, namely, a new solvent system using malic acid, a resist folding structure modified by wool keratin, and an electrostatic bound structure by citrus peel pectin. Furthermore, we successfully prepared these three types of rice protein films using glycerin and thermal treatments. The results showed that the film prepared with malic acid has the lowest haze, opacity, and water vapor transmission ability, and the film containing wool keratin has the highest mechanical strength and water resistance. The addition of pectin provided more pronounced whiteness ( p < 0.01) and rapid biodegradability compared with that for the film produced under conventional alkaline conditions. This work demonstrates facile preparation methods for safer and skin-friendly rice protein films and enlightens broad interests in the potential towards completely environment-friendly plant protein films as well.
Author Hu, Juwu
Zhao, Qiang
Selomulya, Cordelia
Liao, Yang
Xiong, Hua
He, Chengxin
Wang, Yong
Hu, Yu
AuthorAffiliation Department of Chemical Engineering
Jiangxi Academy of Sciences
Monash University
State Key Laboratory of Food Science and Technology
Nanchang University
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Snippet Although a plant protein film is a promising alternative to petroleum-based plastic films, the insoluble nature of some plant proteins still limits their use...
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StartPage 49
SubjectTerms Biodegradability
Biodegradation
citrus peels
Folding structures
glycerol
Green chemistry
Haze
heat treatment
Keratin
Malic acid
Mechanical properties
Opacity
Pectin
pectins
petroleum
plastic film
Polymer films
Production methods
Proteins
recycling
Rice
rice protein
solubility
solvents
strength (mechanics)
Waste recycling
wastes
Water resistance
Water vapor
Wool
Title Complete waste recycling strategies for improving the accessibility of rice protein films
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