Space manufacturing of a bone tissue destined for patients on Earth?

Vladimir S. Komlev , Vladislav A. Parfenov , Pavel A. Karalkin , Stanislav V. Petrov , Frederico D.A.S. Pereira , Elizaveta V. Koudan , Aleksandr A. Levin , Margarita A. Golberg , Alexander Yu. Fedotov , Igor V. Smirnov , Andrey D. Kaprin , Natalia S. Sergeeva , Irina K. Sviridova , Valentina A. Kirsanova , Suraja A. Akhmedova , Georgy V. Mamin , Marat R. Gafurov , Alexey N. Gurin , Yusef D. Khesuani , Yury M. Urlichich
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Abstract

Space exploration is perhaps one of the most difficult tasks ever undertaken since the emergence of humankind. The International Space Station is a unique platform for advanced technology research that is not possible anywhere else. Tissue engineering in outer space, where state of the gravity can be ‘turned off’ or ‘turned on’ in the case of application of centrifuges, is a new research field with high-value goals. The microgravity conditions allow to design novel biomaterials that cannot be produced on Earth but benefit the Earth civilisation. Developing and manufacturing a biomaterial to address a space-based challenge may lead to novel biomaterials that will find important applications in medicine on Earth and/or for long-duration space missions. Today, there are only a handful of emerging biomaterials that have been tested in space, none of which have been used for their eventual function. This paper presents advances in space technology via 3D magnetic assembly: the development of synthetic bone graft constructs aboard the International Space Station during expeditions 60/61 with clear evidence of the materials' functioning in preclinical (animal) tests on Earth. The results indicate high osteoconductivity and ultimately a good rate of tissue formation by the bone grafts prepared in space.

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在太空中为地球上的病人制造骨组织?
太空探索也许是人类有史以来最艰巨的任务之一。国际空间站是进行先进技术研究的独特平台,这是其他任何地方都无法实现的。在外层空间,重力状态可以 "关闭 "或 "打开"(在应用离心机的情况下),组织工程是一个具有高价值目标的新研究领域。在微重力条件下,可以设计出地球上无法生产但却有益于地球文明的新型生物材料。开发和制造一种生物材料来应对天基挑战,可能会导致新型生物材料在地球医学和/或长期太空任务中得到重要应用。目前,只有少数几种新兴生物材料在太空中进行过测试,但都没有用于实现其最终功能。本文介绍了通过三维磁性组装技术在太空技术方面取得的进展:在 60/61 号探险期间,在国际空间站上开发了合成骨移植结构,并在地球上的临床前(动物)试验中明确证明了这些材料的功能。结果表明,在太空中制备的骨移植物具有很高的骨传导性,最终组织形成率也很高。
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