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The convergence of space physiology and ground-based medical science: An engineering solution attendant to the effect of biological applications.

机译:空间生理学与地基医学的融合:一种伴随生物应用效果的工程解决方案。

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This PDE is an overview of the emergence of the Rotating Wall Vessel (RWV) as a scientifically recognized analogue for microgravity research and gives examples of how it is currently being used as such in a series of three chapters. In chapter one the task of conducting cell biology (three-dimensional biology/physiology) research in microgravity and understanding how this unique environment effects and promotes the discovery of new methods to address enduring questions is discussed. The solution requires a multidisciplinary approach; both a biological and an engineering solution. Chapter 1, illuminates those challenges and rationales, describes the methods that have been employed to approximate the microgravity environment in an Earth or one gravity (1G) environment, demonstrates the evolution of equipment which led to the development of devices like the RWV to address cell biology in microgravity, and ultimately, reviews the historical perspectives surrounding bioengineering several analogues to mimic microgravity.; Chapter 2 details the utilization of the RWV to construct three-dimensional tissue models of the Bowhead whale, an endangered species, for the potential study of global marine mammal toxicology. In this same work, the discovery of the molecular genetic composition of the Bowhead metallothionein protein is presented for the first time.; Chapter 3 illustrates the ability to combine RWV technology, time varying electromagnetic fields (TVEMF), and cell physiology to accomplish the construct of two and three-dimensional models of normal human neural cells and the ability to stimulate these cells to proliferate at an accelerated rate. Additionally, the molecular genetic “finger print” for this enhanced growth is presented. This is the first documented data for the response of mammalian cells to this specific growth stimulus.; Finally, the epilogue outlines briefly the implications of the achievements thus far, the possibilities for future work and the vision for the future of space based research.
机译:该PDE概述了旋转壁容器(RWV)作为微重力研究的科学公认模拟物的出现,并在三个章节中举例说明了当前如何使用它。在第一章中,讨论了在微重力下进行细胞生物学(三维生物学/生理学)研究以及了解这种独特环境如何影响和促进发现解决持久性问题的新方法的任务。该解决方案需要多学科的方法。生物和工程解决方案。第1章阐明了这些挑战和原理,描述了用于近似地球或一个重力(1G)环境中的微重力环境的方法,展示了设备的发展,从而导致了诸如RWV等设备的发展,以解决电池问题微重力生物学,并最终回顾了围绕生物工程学模拟微重力的类似物的历史观点。第2章详细介绍了利用RWV来构建濒危物种Bowhead鲸鱼的三维组织模型,以用于全球海洋哺乳动物毒理学的潜在研究。在这项相同的工作中,首次提出了弓头金属硫蛋白蛋白质的分子遗传组成的发现。第3章说明了结合RWV技术,时变电磁场(TVEMF)和细胞生理学来完成正常人神经细胞的二维和三维模型构建的能力,以及刺激这些细胞以加速速率增殖的能力。 。此外,还介绍了这种促进生长的分子遗传“指纹”。这是哺乳动物细胞对这种特定生长刺激的反应的第一个记录数据。最后,结语简要概述了迄今为止取得的成就的含义,未来工作的可能性以及对空间研究未来的展望。

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