Decellularization of renal fibrosis by cyclic hydrostatic pressure to restore renal function

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Abstract

Natural extracellular matrices (ECM) are currently being studied as an alternative source for organ transplantation or as new solutions to treat end-stage renal disease. As the gap between donors and patients in need of an organ transplant continues to widen, research in regenerative medicine seeks to provide different strategies for treatment Tissue and organ failure is currently one of the biggest health issues our society faces [1]. Arising from disease or trauma, complete treatment typically requires the repair or replace the affected organ However, the unavailability of adequate organs for transplantation to meet the existing demand has resulted in major organ shortage crisis. As a result, there has been a major increase in the number of patients [2]. The stem cell therapy fails because of the toxic environment in the organ, the implanted cells unable to regenerate. Afterwards researchers are trying to prepare the lab made artificial organ in the laboratory with the help of artificial scaffold and the tissue specific stem cells. Then tried for the transplantation of animal organs. To overcome this organ shortage challenge is the use of organ-derived scaffolds obtained via decellularization techniques by removing all viable cells from native tissues and retaining 3D structure of natural extracellular matrix (ECM) and vascular network for regeneration. This is the most adequate method where scaffold thoroughly decellularizes, free of endotoxin or bacterial contamination. An appropriate macro and microstructure to support physiological function, intact vascular tree, specific location cues.
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循环静水压力对肾纤维化的脱细胞作用以恢复肾功能
目前,人们正在研究天然细胞外基质(ECM)作为器官移植的替代来源或作为治疗终末期肾脏疾病的新解决方案。由于供体和需要器官移植的患者之间的差距继续扩大,再生医学的研究寻求提供不同的治疗策略。组织和器官衰竭是目前我们社会面临的最大的健康问题之一。由于疾病或创伤,彻底治疗通常需要修复或更换受影响的器官。然而,由于无法获得足够的器官用于移植,以满足现有的需求,导致了严重的器官短缺危机。结果,病人的数量有了很大的增加。干细胞治疗失败的原因是器官内的有毒环境,植入的细胞无法再生。随后,研究人员正试图借助人工支架和组织特异性干细胞在实验室中制备实验室制造的人造器官。然后尝试动物器官移植。为了克服这一器官短缺的挑战,使用通过脱细胞技术获得的器官来源支架,该技术通过去除天然组织中的所有活细胞并保留天然细胞外基质(ECM)的3D结构和血管网络进行再生。这是支架彻底脱细胞的最合适的方法,没有内毒素或细菌污染。适当的宏观和微观结构,以支持生理功能,完整的血管树,特定的位置线索。
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