a Department of Food Science and Biotechnology , Sungkyunkwan University (SKKU) , Jangan-gu, Suwon , Republic of Korea.
Bioengineered. 2018 Jan 1;9(1):2-5. doi: 10.1080/21655979.2017.1317572. Epub 2017 May 19.
Photoautotrophic cyanobacteria have been developed to convert CO to valuable chemicals and fuels as solar-to-chemical (S2C) and solar-to-fuel (S2F) platforms. Here, I describe the rewiring of the metabolic pathways in cyanobacteria to better understand the endogenous carbon flux and to enhance the yield of heterologous products. The plasticity of the cyanobacterial metabolism has been proposed to be advantageous for the development of S2C and S2F processes. The rewiring of the sugar catabolism and of the phosphoketolase pathway in the central cyanobacterial metabolism allowed for an enhancement in the level of target products by redirecting the carbon fluxes. Thus, metabolic pathway rewiring can promote the development of more efficient cyanobacterial cell factories for the generation of feasible S2C and S2F platforms.
已开发出光能自养蓝藻将 CO 转化为有价值的化学品和燃料,作为太阳能到化学(S2C)和太阳能到燃料(S2F)平台。在这里,我描述了蓝藻中代谢途径的重新布线,以更好地了解内源性碳通量并提高异源产物的产量。蓝藻代谢的可塑性被认为有利于 S2C 和 S2F 过程的发展。通过重新定向碳通量,对中央蓝藻代谢中的糖分解代谢和磷酸酮解途径进行重新布线,从而提高了目标产物的水平。因此,代谢途径的重新布线可以促进开发更有效的蓝藻细胞工厂,以生成可行的 S2C 和 S2F 平台。