BioDiscovery Institute and Department of Biological Sciences, University of North Texas, Denton, TX 76203, USA.
Department of Cell and Developmental Biology, University of California at San Diego, La Jolla, CA 92093, USA.
Plant Physiol. 2024 Apr 30;195(1):48-66. doi: 10.1093/plphys/kiad596.
Over the past century, early advances in understanding the identity of the chemicals that collectively form a living plant have led scientists to deeper investigations exploring where these molecules localize, how they are made, and why they are synthesized in the first place. Many small molecules are specific to the plant kingdom and have been termed plant secondary metabolites, despite the fact that they can play primary and essential roles in plant structure, development, and response to the environment. The past 100 yr have witnessed elucidation of the structure, function, localization, and biosynthesis of selected plant secondary metabolites. Nevertheless, many mysteries remain about the vast diversity of chemicals produced by plants and their roles in plant biology. From early work characterizing unpurified plant extracts, to modern integration of 'omics technology to discover genes in metabolite biosynthesis and perception, research in plant (bio)chemistry has produced knowledge with substantial benefits for society, including human medicine and agricultural biotechnology. Here, we review the history of this work and offer suggestions for future areas of exploration. We also highlight some of the recently developed technologies that are leading to ongoing research advances.
在过去的一个世纪里,人们对构成生物体的化学物质的特性的认识不断提高,这使得科学家们能够深入研究这些分子的定位、产生方式以及它们最初是如何合成的。尽管许多小分子物质对植物界具有特异性,并被称为植物次生代谢物,但它们在植物结构、发育和对环境的反应中起着主要和重要的作用。在过去的 100 年里,人们已经阐明了选定的植物次生代谢物的结构、功能、定位和生物合成。然而,关于植物产生的大量化学物质及其在植物生物学中的作用,仍有许多谜团尚未解开。从早期对未纯化的植物提取物进行特征描述的工作,到现代将“组学”技术整合起来发现代谢物生物合成和感知相关基因,植物(生物)化学领域的研究为社会带来了很多有益的知识,包括人类医学和农业生物技术。在这里,我们回顾了这项工作的历史,并为未来的探索领域提供了建议。我们还强调了一些最近开发的技术,这些技术正在推动研究的不断进步。