Single Cell Research Center, School of Agriculture and Biology, Shanghai Jiao Tong University, Shanghai 200240, China.
Biotechnology Research Institute, Chinese Academy of Agricultural Sciences, Beijing, China.
Plant Commun. 2023 Jul 10;4(4):100558. doi: 10.1016/j.xplc.2023.100558. Epub 2023 Feb 9.
With the development of high-throughput biology techniques and artificial intelligence, it has become increasingly feasible to design and construct artificial biological parts, modules, circuits, and even whole systems. To overcome the limitations of native promoters in controlling gene expression, artificial promoter design aims to synthesize short, inducible, and conditionally controlled promoters to coordinate the expression of multiple genes in diverse plant metabolic and signaling pathways. Synthetic promoters are versatile and can drive gene expression accurately with smart responses; they show potential for enhancing desirable traits in crops, thereby improving crop yield, nutritional quality, and food security. This review first illustrates the importance of synthetic promoters, then introduces promoter architecture and thoroughly summarizes advances in synthetic promoter construction. Restrictions to the development of synthetic promoters and future applications of such promoters in synthetic plant biology and crop improvement are also discussed.
随着高通量生物学技术和人工智能的发展,设计和构建人工生物部件、模块、电路,甚至整个系统已经变得越来越可行。为了克服天然启动子在控制基因表达方面的局限性,人工启动子设计旨在合成短的、诱导的和条件控制的启动子,以协调多个基因在不同植物代谢和信号通路中的表达。合成启动子具有多功能性,可以通过智能响应精确驱动基因表达;它们在增强作物理想性状方面具有潜力,从而提高作物产量、营养品质和粮食安全。本文首先说明了合成启动子的重要性,然后介绍了启动子结构,并全面总结了合成启动子构建的进展。还讨论了合成启动子发展的限制因素以及此类启动子在合成植物生物学和作物改良中的未来应用。