Schindler Daniel
Max Planck Institute for Terrestrial Microbiology, Karl-von-Frisch-Straße 10, 35043 Marburg, Germany.
Manchester Institute of Biotechnology, The University of Manchester, 131 Princess Street, Manchester M1 7DN, UK.
Bioengineering (Basel). 2020 Oct 29;7(4):137. doi: 10.3390/bioengineering7040137.
The field of genetic engineering was born in 1973 with the "". Since then, a vast number of technologies have been developed allowing large-scale reading and writing of DNA, as well as tools for complex modifications and alterations of the genetic code. Natural genomes can be seen as software version 1.0; synthetic genomics aims to rewrite this software with "build to understand" and "build to apply" philosophies. One of the predominant model organisms is the baker's yeast . Its importance ranges from ancient biotechnologies such as baking and brewing, to high-end valuable compound synthesis on industrial scales. This tiny sugar fungus contributed greatly to enabling humankind to reach its current development status. This review discusses recent developments in the field of genetic engineering for budding yeast and its application in biotechnology. The article highlights advances from Sc1.0 to the developments in synthetic genomics paving the way towards Sc2.0. With the synthetic genome of Sc2.0 nearing completion, the article also aims to propose perspectives for potential Sc3.0 and subsequent versions as well as its implications for basic and applied research.
基因工程领域诞生于1973年的“”。从那时起,已经开发出了大量技术,可实现DNA的大规模读取和写入,以及用于对遗传密码进行复杂修饰和改变的工具。天然基因组可被视为1.0版软件;合成基因组学旨在以“构建以理解”和“构建以应用”的理念重写此软件。主要的模式生物之一是酿酒酵母。其重要性涵盖了从烘焙和酿造等古老生物技术到工业规模的高端有价值化合物合成。这种微小的糖真菌为人类达到当前的发展状态做出了巨大贡献。本综述讨论了用于芽殖酵母的基因工程领域的最新进展及其在生物技术中的应用。文章重点介绍了从Sc1.0到合成基因组学发展的进展,为Sc2.0铺平了道路。随着Sc2.0的合成基因组接近完成,本文还旨在为潜在的Sc3.0及后续版本提出展望及其对基础研究和应用研究的影响。