Microbial methanotrophy: Methane capture to biomanufacturing of platform chemicals and fuels

IF 6.4 Next Energy Pub Date : 2025-07-01 Epub Date: 2025-02-18 DOI:10.1016/j.nxener.2025.100251
Tanushree Baldeo Madavi , Sushma Chauhan , Vini Madathil , Mugesh Sankaranarayanan , Balakrishnan Navina , Nandha Kumar Velmurugan , Kwon-Young Choi , Harinarayana Ankamareddy , Hemasundar Alavilli , Sudheer D.V.N. Pamidimarri
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Abstract

Methanotrophs with other methane-assimilating microbes, are of prime importance due to their role in methane fixation, which helps to mitigate elevated atmospheric methane concentrations. With soaring demands of energy sector, major and foremost product of methane oxidation is biomethanol used as a biofuel which is catalyzed by the methane monooxgenases. Inherent methane oxidation capacity assists to palliate environmental distress, dependency on conventional non-renewable resources for chemical production processes. Sustainable future demands the energy rich molecules to be synthesised with least carbon emission. Many technologies have been developed and explored for methane-oxidizing systems, which looks to be lucrative towards establishing as biorefinery for manufacturing various chemicals ranging from energy rich molecules, fine chemicals, novel compounds, and nutraceuticals. Methane monooxygenases, the catalytic apparatus for methane oxidation, have added insights into comprehensive understanding; underpinning methanotrophs as valuable platform for biomanufacturing via mitigating methane footprint into drop-in fuels and high value biomolecules. The availability of modern molecular technologies based on synthetic biology and modern omics studies demonstrated methanotrophs can be efficient manufacturing platforms for producing novel products and tailoring at molecular level achieved better titre. Realizing the importance of the methane-based economy, this review focusses on summarizing basics of the methanotrophic systems, their catalytic machinery for methane capture via methane monooxygenase system etc. Further, this review includes the recent advancements while emphasizing on the foremost biofuel entity, i.e. methanol, production by methanotrophs. Later part is focused on their application as biocatalysts and biorefineries to produce various valuable molecules such as drop-in-fuels and platform chemicals.

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微生物甲烷化:甲烷捕获到生物制造的平台化学品和燃料
甲烷氧化菌与其他甲烷同化微生物,由于它们在甲烷固定中的作用,这有助于缓解大气甲烷浓度升高,是最重要的。随着能源需求的不断增长,甲烷氧化的主要产物是由甲烷单氧酶催化的生物甲醇。固有的甲烷氧化能力有助于减轻环境压力,依赖于传统的不可再生资源的化学生产过程。可持续发展的未来要求以最少的碳排放合成能量丰富的分子。人们已经开发和探索了许多用于甲烷氧化系统的技术,这些技术在建立生物精炼厂方面看起来是有利可图的,可以制造各种各样的化学品,包括富含能量的分子、精细化学品、新型化合物和营养药品。甲烷单加氧酶,甲烷氧化的催化装置,增加了对全面理解的见解;通过减少甲烷足迹转化为一次性燃料和高价值生物分子,支持甲烷氧化菌作为生物制造的宝贵平台。基于合成生物学和现代组学研究的现代分子技术的可用性表明,甲烷氧化菌可以成为生产新产品和在分子水平上实现更好滴度的定制的有效制造平台。鉴于甲烷经济的重要性,本文综述了甲烷营养系统的基本原理、甲烷单加氧酶系统捕获甲烷的催化机理等。此外,本文综述了最近的进展,同时强调了最重要的生物燃料实体,即甲醇,由甲烷氧化菌生产。后面的部分重点是它们作为生物催化剂和生物精炼厂的应用,以生产各种有价值的分子,如drop-in-fuel和平台化学品。
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