Sobieraj Karolina, Stegenta-Dąbrowska Sylwia, Luo Gang, Koziel Jacek A, Białowiec Andrzej
Department of Applied Bioeconomy, Wrocław University of Environmental and Life Sciences, Wrocław, Poland.
Shanghai Key Laboratory of Atmospheric Particle Pollution and Prevention (LAP3), Department of Environmental Science and Engineering, Fudan University, Shanghai, China.
Front Bioeng Biotechnol. 2023 Feb 9;11:1126737. doi: 10.3389/fbioe.2023.1126737. eCollection 2023.
Carbon monoxide (CO) is an essential "building block" for producing everyday chemicals on industrial scale. Carbon monoxide can also be generated though a lesser-known and sometimes forgotten biorenewable pathways that could be explored to advance biobased production from large and more sustainable sources such as bio-waste treatment. Organic matter decomposition can generate carbon monoxide both under aerobic and anaerobic conditions. While anaerobic carbon monoxide generation is relatively well understood, the aerobic is not. Yet many industrial-scale bioprocesses involve both conditions. This review summarizes the necessary basic biochemistry knowledge needed for realization of initial steps towards biobased carbon monoxide production. We analyzed for the first time, the complex information about carbon monoxide production during aerobic, anaerobic bio-waste treatment and storage, carbon monoxide-metabolizing microorganisms, pathways, and enzymes with bibliometric analysis of trends. The future directions recognizing limitations of combined composting and carbon monoxide production have been discussed in greater detail.
一氧化碳(CO)是工业规模生产日常化学品的重要“基石”。一氧化碳也可通过鲜为人知且有时被遗忘的生物可再生途径生成,这些途径可加以探索,以推动来自生物废弃物处理等大规模且更可持续来源的生物基生产。有机物分解在有氧和无氧条件下均可产生一氧化碳。虽然厌氧条件下一氧化碳的生成相对较为人所熟知,但有氧条件下的情况却并非如此。然而,许多工业规模的生物过程都涉及这两种条件。本综述总结了实现生物基一氧化碳生产初始步骤所需的必要基础生物化学知识。我们首次通过文献计量学趋势分析,剖析了有氧、厌氧生物废弃物处理与储存过程中一氧化碳生成、一氧化碳代谢微生物、途径及酶的复杂信息。文中更详细地讨论了认识到堆肥与一氧化碳生产相结合的局限性后的未来发展方向。