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首页> 外文期刊>Current opinion in plant biology >In vivo biochemistry: applications for small molecule biosensors in plant biology. (Special Issue: Physiology and metabolism.)
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In vivo biochemistry: applications for small molecule biosensors in plant biology. (Special Issue: Physiology and metabolism.)

机译:体内生物化学:小分子生物传感器在植物生物学中的应用。 (特刊:生理学和新陈代谢。)

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摘要

Revolutionary new technologies, namely in the areas of DNA sequencing and molecular imaging, continue to impact new discoveries in plant science and beyond. For decades we have been able to determine properties of enzymes, receptors and transporters in vitro or in heterologous systems, and more recently been able to analyze their regulation at the transcriptional level, to use GFP reporters for obtaining insights into cellular and subcellular localization, and tp measure ion and metabolite levels with unprecedented precision using mass spectrometry. However, we lack key information on the location and dynamics of the substrates of enzymes, receptors and transporters, and on the regulation of these proteins in their cellular environment. Such information can now be obtained by transitioning from in vitro to in vivo biochemistry using biosensors. Genetically encoded fluorescent protein-based sensors for ion and metabolite dynamics provide highly resolved spatial and temporal information, and are complemented by sensors for pH, redox, voltage, and tension. They serve as powerful tools for identifying missing processes (e.g., glucose transport across ER membranes), components (e.g., SWEET sugar transporters for cellular sugar efflux), and signaling networks (e.g., from systematic screening of mutants that affect sugar transport or cytosolic and vacuolar pH). Combined with the knowledge of properties of enzymes and transporters and their interactions with the regulatory machinery, biosensors promise to be key diagnostic tools for systems and synthetic biology.
机译:革命性的新技术,即DNA测序和分子成像领域的技术,继续影响着植物科学及其他领域的新发现。几十年来,我们已经能够确定体外或异源系统中酶,受体和转运蛋白的特性,并且最近能够分析它们在转录水平上的调控,使用GFP报告基因获得对细胞和亚细胞定位的了解,以及tp使用质谱仪以前所未有的精度测量离子和代谢物的水平。但是,我们缺乏有关酶,受体和转运蛋白底物的位置和动力学以及这些蛋白在其细胞环境中的调控的关键信息。现在可以通过使用生物传感器从体外生物化学过渡到体内生物化学来获得此类信息。基于离子和代谢物动力学的基于遗传编码荧光蛋白的传感器可提供高度解析的空间和时间信息,并配有pH,氧化还原,电压和张力传感器。它们可作为功能强大的工具来识别缺失的过程(例如,跨ER膜的葡萄糖转运),成分(例如,用于细胞糖外排的SWEET糖转运蛋白)和信号网络(例如,通过系统筛选影响糖转运或胞质和液泡pH)。结合酶和转运蛋白的特性知识以及它们与调节机制的相互作用,生物传感器有望成为系统和合成生物学的关键诊断工具。

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