One-step processing of shrimp shell waste with a chitinase fused to a carbohydrate-binding module

As a potential renewable and nitrogen-rich feedstock, tons of shrimp shell waste is generated from the increasing consumption of seafood. However, its traditional processing is costly and creates pollution. The bioconversion of shell waste into valuable nitrogen-containing chemicals via enzymatic hy...

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Veröffentlicht in:Green chemistry : an international journal and green chemistry resource : GC 2020-10, Vol.22 (2), p.6862-6873
Hauptverfasser: Deng, Jun-Jin, Zhang, Ming-Shu, Li, Zhi-Wei, Lu, De-Lin, Mao, He-Hua, Zhu, Ming-Jun, Li, Jia-Zhou, Luo, Xiao-Chun
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container_title Green chemistry : an international journal and green chemistry resource : GC
container_volume 22
creator Deng, Jun-Jin
Zhang, Ming-Shu
Li, Zhi-Wei
Lu, De-Lin
Mao, He-Hua
Zhu, Ming-Jun
Li, Jia-Zhou
Luo, Xiao-Chun
description As a potential renewable and nitrogen-rich feedstock, tons of shrimp shell waste is generated from the increasing consumption of seafood. However, its traditional processing is costly and creates pollution. The bioconversion of shell waste into valuable nitrogen-containing chemicals via enzymatic hydrolysis is a promising technology. However, intact shells are poorly hydrolyzed by chitinases unless pre-demineralization and deproteinization with chemicals or proteases are performed. In this study, three carbohydrate-binding modules (CBMs) were fused to the C-terminal of a chitinase Chit46 to enhance its hydrolysis of shrimp shell waste. The addition of CBMs significantly improved the chitinase activity and substrate-binding activity of Chit46. Chimeric chitinases could directly hydrolyze shrimp shells without pretreatment and their hydrolysis efficiency was much higher than that of previously reported chitinases. With the modified chitinase ('Chit46-CBM3'), we developed a one-step shrimp shell processing method. The method could convert 46.5% of chitin in shrimp shells to chitin oligomers by hydrolysis in 12 h. Partial protein release accompanied chitin hydrolysis. Consisting of 8.8 g l −1 chitin oligomers and 11.3 g l −1 protein, the hydrolysate could support robust microbial growth and the residue was more digestible by mammals than conventional shrimp shell powder. This process is superior to previously reported methods in cost, conversion efficiency and labour. The one-step process also exhibited a much lower ecological footprint than conventional processing and can be applied to other types of chitinous waste in addition to shrimp shells. A sustainable, economical and convenient one-step process to produce high-value chitin oligomers and digestible shell residue from shrimp shell waste by a chitinase fused to a carbohydrate-binding module.
doi_str_mv 10.1039/d0gc02611e
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However, its traditional processing is costly and creates pollution. The bioconversion of shell waste into valuable nitrogen-containing chemicals via enzymatic hydrolysis is a promising technology. However, intact shells are poorly hydrolyzed by chitinases unless pre-demineralization and deproteinization with chemicals or proteases are performed. In this study, three carbohydrate-binding modules (CBMs) were fused to the C-terminal of a chitinase Chit46 to enhance its hydrolysis of shrimp shell waste. The addition of CBMs significantly improved the chitinase activity and substrate-binding activity of Chit46. Chimeric chitinases could directly hydrolyze shrimp shells without pretreatment and their hydrolysis efficiency was much higher than that of previously reported chitinases. With the modified chitinase ('Chit46-CBM3'), we developed a one-step shrimp shell processing method. The method could convert 46.5% of chitin in shrimp shells to chitin oligomers by hydrolysis in 12 h. Partial protein release accompanied chitin hydrolysis. Consisting of 8.8 g l −1 chitin oligomers and 11.3 g l −1 protein, the hydrolysate could support robust microbial growth and the residue was more digestible by mammals than conventional shrimp shell powder. This process is superior to previously reported methods in cost, conversion efficiency and labour. The one-step process also exhibited a much lower ecological footprint than conventional processing and can be applied to other types of chitinous waste in addition to shrimp shells. 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Partial protein release accompanied chitin hydrolysis. Consisting of 8.8 g l −1 chitin oligomers and 11.3 g l −1 protein, the hydrolysate could support robust microbial growth and the residue was more digestible by mammals than conventional shrimp shell powder. This process is superior to previously reported methods in cost, conversion efficiency and labour. The one-step process also exhibited a much lower ecological footprint than conventional processing and can be applied to other types of chitinous waste in addition to shrimp shells. 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source Royal Society Of Chemistry Journals 2008-; Alma/SFX Local Collection
subjects Binding
Bioconversion
Carbohydrates
Chemicals
Chitin
Chitinase
Demineralization
Demineralizing
Deproteinization
Ecological footprint
Environmental impact
Green chemistry
Hydrolysis
Microorganisms
Modules
Nitrogen
Oligomers
Pretreatment
Proteins
Seafood
Shells
Substrates
title One-step processing of shrimp shell waste with a chitinase fused to a carbohydrate-binding module
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