木质纤维素生物质生物燃料微生物预处理研究进展

Bibek Rana Chhetri, Dipika Acharya, Arjun Gautam, Nasala Bajracharya, A. Shrestha, Smriti Khadka
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引用次数: 0

摘要

木质纤维素生物质(LCB),第二代生物燃料被用作解决石油产品等化石燃料消耗燃烧问题的替代手段,具有可再生、低排放和低污染的附加优势。为了增加LCB生物燃料的产量,微生物预处理过程在潜在微生物的活性下加速了木质素和半纤维素等有机聚合物的降解。为了提高半纤维素的降解效率,木霉、曲霉等半纤维素分解真菌和其他细菌会产生纤维素体等多酶复合物。同样,像花斑天牛、角斑二蝇、花草、黄代达莱和辐射草等生物含有木质素降解辅助酶和木质素修饰酶,如漆酶和含血红素过氧化物酶,有助于脱木质素过程。有几个因素与预处理过程有关,如菌株类型、接种量、pH、温度、脂肪酸、C/N比、时间、曝气、可磨性、表面积、粒度和添加的补剂。为了改进预处理方法,建议将微生物与物理、化学和机械方法相结合,从而产生协同效应,提高最终产品的收率。总的来说,生物燃料应该得到更多的应用,本综述旨在为微生物预处理方法带来光明,这些方法可以帮助有效生产生物燃料,从而直接促进环境的可持续性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Microbial Pre-treatment of Lignocellulosic Biomass for Biofuel Production: A Review
Lignocellulosic biomasses (LCB), second-generation biofuels are used as an alternative means to cope with the burning issues of depleting fossil fuels like petroleum products with the added advantage of renewability, lower emission, and lesser pollution. For the increment in the production of LCB biofuels, microbial pre-treatment processes are conducted which accelerates the degradation of organic polymers like lignin and hemicellulose with the activity of potential microorganisms. To increase the efficiency of degradation of hemicellulose, hemicellulolytic fungi including Trichoderma and Aspergillus and other bacteria produce multi-enzymatic complexes like cellulosomes. Similarly, organisms like Tinea versicolor, Dichomitus squalens, Phlebia floridensis, Daedalea flavida, and Phlebia radiata contain lignin-degrading auxiliary enzymes and lignin modifying enzymes like laccase and heme-containing peroxidase which aid in delignification process. Several factors are associated with pre-treatment processes like the type of strain, inoculum load, pH, temperature, fatty acids, C/N ratio, time, aeration, grindability, surface area, particle size, and supplements added. To enhance the pretreatment method, the combination of microbial with physical, chemical, and mechanical methods is suggested which leads to a synergistic effect and better yield of the final product. Overall, biofuels should be more employed and this review aims to bring light to the microbial pre-treatment approaches which can aid in the efficient production of biofuels that can directly contribute to environmental sustainability.
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