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首页> 外文期刊>Urological research >The future of stone research: rummagings in the attic, Randall's plaque, nanobacteria, and lessons from phylogeny.
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The future of stone research: rummagings in the attic, Randall's plaque, nanobacteria, and lessons from phylogeny.

机译:石材研究的未来:在阁楼上翻腾,Randall斑块,纳米细菌以及系统发育学的教训。

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The prevention or cure of stone disease will be achieved only by identifying biochemical, physiological and molecular mechanisms operating before the formation of a calculus. Yet, the gradual increase in the total number of papers devoted to the study of kidney stones that has occurred since the beginning of the 21st century can be attributed almost entirely to papers concerned with the investigation of factors associated with urolithiasis after stones have already formed. The need to prevent stones by discovering how the human body routinely stops their formation in those of us who do not suffer from them is therefore as exigent as ever and a new approach to investigating the causes of stones is urgently needed. In this paper, I develop the view that stone research will best progress by examining and understanding how healthy plants and animals control the formation of biominerals. In addition to structures like bones, teeth, shells and spines, many organisms spanning the entire phylogenetic tree formintra- and extracellular granules which are use as storage depots for calcium and other important ions, which they can reclaim to maintain homeostasis or to satisfy specific needs during periods of high demand, such as shell formation, moulting or skeletal development. These electron-dense granules, which also bear an uncanny resemblance to calcified nanobacteria, are remarkably similar in general structure, size and composition to particles observed in healthy human kidneys and in Randall's plaque. Therefore, it is likely that the granules in human kidneys fulfil analogous functions to those in other organisms-particularly in calcium homeostasis. Their study in a large range of creatures has already provided a deep well of information about their structure, movement, composition, macromolecular content, synthesis and resorption, from which we can draw to quench our thirst for knowledge of basic mechanisms and events involved in the formation of human kidney stones.
机译:仅通过确定在牙结石形成之前起作用的生化,生理和分子机制,才能实现石病的预防或治疗。然而,自21世纪初以来,致力于肾结石研究的论文总数逐渐增加,几乎可以完全归因于与结石形成后与尿路结石相关因素研究有关的论文。因此,通过发现人体中经常遭受结石困扰的人来预防结石的预防与以往一样迫切,因此迫切需要一种研究结石原因的新方法。在本文中,我提出一种观点,即通过研究和了解健康的动植物如何控制生物矿物质的形成,石料研究将取得最佳进展。除了骨骼,牙齿,贝壳和刺之类的结构外,许多生物遍布整个系统发育树,其中的微小颗粒和胞外颗粒可用作钙和其他重要离子的储存库,它们可以回收以维持体内稳态或满足特定需求。在需求旺盛的时期,例如壳形成,蜕皮或骨骼发育。这些电子致密颗粒还具有类似于钙化纳米细菌的不可思议的相似性,其总体结构,大小和组成与在健康的人类肾脏和兰德尔斑块中观察到的颗粒非常相似。因此,人肾脏中的颗粒可能具有与其他生物中的颗粒相似的功能,尤其是钙稳态。他们在众多生物中的研究已经提供了有关其结构,运动,组成,大分子含量,合成和吸收的深刻信息,我们可以借此汲取对知识的基本机制和需求的渴求,人肾结石的形成。

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