Plant Biotechnology Lab, Department of Botany, Faculty of Science, Dayalbagh Educational Institute (Deemed to be University), Dayalbagh, Agra, 282005, India.
Mol Biotechnol. 2021 Dec;63(12):1138-1154. doi: 10.1007/s12033-021-00386-9. Epub 2021 Aug 21.
Recently an enormous expansion of knowledge is seen in various disciplines of science. This surge of information has given rise to concept of interdisciplinary fields, which has resulted in emergence of newer research domains, one of them is 'Synthetic Biology' (SynBio). It captures basics from core biology and integrates it with concepts from the other areas of study such as chemical, electrical, and computational sciences. The essence of synthetic biology is to rewire, re-program, and re-create natural biological pathways, which are carried through genetic circuits. A genetic circuit is a functional assembly of basic biological entities (DNA, RNA, proteins), created using typical design, built, and test cycles. These circuits allow scientists to engineer nearly all biological systems for various useful purposes. The development of sophisticated molecular tools, techniques, genomic programs, and ease of nucleic acid synthesis have further fueled several innovative application of synthetic biology in areas like molecular medicines, pharmaceuticals, biofuels, drug discovery, metabolomics, developing plant biosensors, utilization of prokaryotic systems for metabolite production, and CRISPR/Cas9 in the crop improvement. These applications have largely been dominated by utilization of prokaryotic systems. However, newer researches have indicated positive growth of SynBio for the eukaryotic systems as well. This paper explores advances of synthetic biology in the plant field by elaborating on its core components and potential applications. Here, we have given a comprehensive idea of designing, development, and utilization of synthetic biology in the improvement of the present research state of plant system.
近年来,科学的各个学科领域都出现了知识的巨大扩展。这种信息的激增催生了跨学科领域的概念,从而产生了更新的研究领域,其中之一是“合成生物学”(SynBio)。它从核心生物学中获取基础知识,并将其与化学、电气和计算科学等其他领域的概念相结合。合成生物学的本质是重新布线、重新编程和重新创建自然的生物途径,这些途径是通过遗传电路进行的。遗传电路是使用典型的设计、构建和测试周期创建的基本生物实体(DNA、RNA、蛋白质)的功能组件。这些电路允许科学家为各种有用的目的设计和改造几乎所有的生物系统。复杂的分子工具、技术、基因组程序以及核酸合成的便利性进一步推动了合成生物学在分子医学、制药、生物燃料、药物发现、代谢组学、开发植物生物传感器、利用原核系统生产代谢物以及作物改良中的 CRISPR/Cas9 等领域的创新应用。这些应用主要依赖于原核系统的利用。然而,新的研究表明,SynBio 对真核系统的积极增长也是如此。本文通过详细阐述其核心组件和潜在应用,探讨了合成生物学在植物领域的进展。在这里,我们全面介绍了设计、开发和利用合成生物学来改善植物系统现有研究状态的想法。