Department of Energy, Environmental & Chemical Engineering, Washington University in St. Louis Saint Louis, MO, USA.
Front Microbiol. 2013 Apr 4;4:75. doi: 10.3389/fmicb.2013.00075. eCollection 2013.
Microorganisms transform inexpensive carbon sources into highly functionalized compounds without toxic by-product generation or significant energy consumption. By redesigning the natural biosynthetic pathways in an industrially suited host, microbial cell factories can produce complex compounds for a variety of industries. Isoprenoids include many medically important compounds such as antioxidants and anticancer and antimalarial drugs, all of which have been produced microbially. While a biosynthetic pathway could be simply transferred to the production host, the titers would become economically feasible when it is rationally designed, built, and optimized through synthetic biology tools. These tools have been implemented by a number of research groups, with new tools pledging further improvements in yields and expansion to new medically relevant compounds. This review focuses on the microbial production of isoprenoids for the health industry and the advancements though synthetic biology.
微生物将廉价的碳源转化为具有高度功能化的化合物,而不会产生有毒副产物或大量能量消耗。通过重新设计在工业上适用的宿主中的天然生物合成途径,微生物细胞工厂可以生产用于各种行业的复杂化合物。类异戊二烯包括许多医学上重要的化合物,如抗氧化剂、抗癌和抗疟药物,所有这些化合物都已经通过微生物生产。虽然可以简单地将生物合成途径转移到生产宿主中,但当通过合成生物学工具进行合理设计、构建和优化时,其产量就会变得具有经济可行性。许多研究小组已经实施了这些工具,新工具承诺在产量和扩展到新的与医学相关的化合物方面进一步提高。本文综述了微生物生产用于健康产业的类异戊二烯的情况,以及通过合成生物学取得的进展。