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首页> 外文期刊>Critical Reviews in Biotechnology >Calcium-energized motor protein forisome controls damage in phloem: potential applications as biomimetic 'smart'' material
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Calcium-energized motor protein forisome controls damage in phloem: potential applications as biomimetic 'smart'' material

机译:钙激发的运动蛋白前体控制韧皮部损伤:仿生“智能”材料的潜在应用

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摘要

Forisomes are ATP independent, mechanically active proteins from the Fabaceae family (also called Leguminosae). These proteins are located in sieve tubes of phloem and function to prevent loss of nutrient-rich photoassimilates, upon mechanical injury/wounding. Forisomes are SEO (sieve element occlusion) gene family proteins that have recently been shown to be involved in wound sealing mechanism. Recent findings suggest that forisomes could act as an ideal model to study self assembly mechanism for the development of nanotechnological devices like microinstruments, the microfluidic system frequently used in space exploration missions. Technology enabling improvement in micro instruments has been identified as a key technology by NASA in future space exploration missions. Forisomes are designated as biomimetic smart materials which are calcium-energized motor proteins. Since forisomes are biomolecules from plant systems it can be doctored through genetic engineering. In contrast, "smart'' materials which are not derived from plants are difficult to modify in their properties. Current levels of understanding about forisomes conformational shifts with respect to calcium ions and pH changes requires supplement of future advances with relation to its 3D structure to understand self assembly processes. In plant systems it forms blood clots in the form of occlusions to prevent nutrient fluid leakage and thus proves to be a unique damage control system of phloem tissue.
机译:异构体是Fabaceae家族(也称为豆科)的ATP依赖性机械活性蛋白。这些蛋白质位于韧皮部的筛管中,具有防止机械损伤/受伤时营养丰富的光同化物流失的功能。异构体是SEO(筛子元素闭塞)基因家族蛋白,最近被证明与伤口密封机制有关。最近的发现表明,甲壳虫可以作为研究自组装机制的理想模型,用于开发诸如微仪器之类的纳米技术设备,这是经常用于太空探索任务的微流体系统。在未来的太空探索任务中,NASA已将能够改善微仪器的技术确定为一项关键技术。异构体被指定为仿生智能材料,它们是钙激发的运动蛋白。由于异构体是来自植物系统的生物分子,因此可以通过基因工程对其进行诊断。相比之下,非植物衍生的“智能”材料则很难对其特性进行修改,目前对钙离子和pH值变化的形态构象变化的了解水平需要对其3D结构进行进一步的改进。了解自组装过程在植物系统中,它会以阻塞的形式形成血凝块,以防止营养液泄漏,因此被证明是韧皮部组织独特的破坏控制系统。

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