Toward bioproduction of oxo chemicals from C1 feedstocks using isobutyraldehyde as an example.

Liwei Guo, Lichao Sun, Yi-Xin Huo
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引用次数: 1

Abstract

Oxo chemicals are valuable chemicals for synthesizing a wide array of industrial and consumer products. However, producing of oxo chemicals is predominately through the chemical process called hydroformylation, which requires petroleum-sourced materials and generates abundant greenhouse gas. Current concerns on global climate change have renewed the interest in reducing greenhouse gas emissions and recycling the plentiful greenhouse gas. A carbon-neutral manner in this regard is producing oxo chemicals biotechnologically using greenhouse gas as C1 feedstocks. Exemplifying isobutyraldehyde, this review demonstrates the significance of using greenhouse gas for oxo chemicals production. We highlight the current state and the potential of isobutyraldehyde synthesis with a special focus on the in vivo and in vitro scheme of C1-based biomanufacturing. Specifically, perspectives and scenarios toward carbon- and nitrogen-neutral isobutyraldehyde production are proposed. In addition, key challenges and promising approaches for enhancing isobutyraldehyde bioproduction are thoroughly discussed. This study will serve as a reference case in exploring the biotechnological potential and advancing oxo chemicals production derived from C1 feedstocks.

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以异丁醛为例,探讨以C1为原料生物生产含氧化合物的方法。
氧化学物质是合成各种工业和消费产品的有价值的化学物质。然而,含氧化学物质的生产主要是通过称为氢甲酰化的化学过程,这需要石油来源的材料,并产生大量的温室气体。当前对全球气候变化的担忧重新燃起了人们对减少温室气体排放和回收大量温室气体的兴趣。在这方面,碳中和的方式是利用温室气体作为C1原料,以生物技术生产含氧化学品。以异丁醛为例,本文综述了利用温室气体生产含氧化学品的意义。我们强调了异丁醛合成的现状和潜力,特别关注基于c1的生物制造的体内和体外方案。具体地说,对碳和氮中性异丁醛生产的观点和方案提出。此外,主要挑战和有希望的方法,加强异丁醛生物生产进行了深入的讨论。该研究将为探索生物技术潜力和推进由C1原料衍生的含氧化学品生产提供参考案例。
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