Biotechnological potential of stem cells

Dr. Amarendranath Choudhury, Neeraj Kumar, S. Kumar, eep, P. Deepak, Ey
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引用次数: 2

Abstract

Biotechnology deals with developing strategies using biological systems, living organisms or derivatives aimed to make or modify products or processes for specific use and address a broad range of issues in the fields of agriculture, industry, environment and medicine. Though the term ‘Biotechnology’ is not more than a century old until a Hungarian engineer Karl Ereky coined it in 1919, the concept of biotechnology had its first footstep right since the discovery of fermentation around 7000 BC.1 The subject has a bygone soul with a dynamic nature and promising outlook towards future. Biochemistry, cell biology, pharmacology, immunology, genomics, proteomics, structural biology etc. are relentlessly contributing into biotechnology. Cell-based approaches of biotechnology, particularly focussing on mammalian or human cells, came up in the late 20th century with the advent of procedures for artificial insemination and reproductive cloning.2 In this context, the isolation of inner cell mass from human blastocyst and their characterization as stem cells by the scientists of University of Wisconsin in 1998 set the cornerstone of stem-cell research.3 Table 1 summarizes the chronological progresses in stem cell-research. In this age of Biology, scientists throughout the globe are looking for alternative therapeutic measures using the inherent potential of the stem cells, holding great promise for the treatment of debilitating diseases. Stem cells of different origin and level of potency are being investigated for tissue regeneration, treatment of bone defect, drug testing, gene therapy and cell based therapy for muscle damage, spinal cord injury, cancer therapy etc.4 This review concentrates on types of stem cells and their multidisciplinary applications, mainly as a tool for biotechnological advances in modern therapeutics.
干细胞的生物技术潜力
生物技术涉及利用生物系统、活生物体或衍生物制定战略,旨在制造或修改特定用途的产品或过程,并解决农业、工业、环境和医学领域的广泛问题。尽管“生物技术”一词只有不到一个世纪的历史,直到匈牙利工程师卡尔·埃雷基(Karl Ereky)在1919年创造了它,但生物技术的概念自公元前7000年左右发现发酵以来已经迈出了第一步。生物化学、细胞生物学、药理学、免疫学、基因组学、蛋白质组学、结构生物学等都在不懈地为生物技术做出贡献。20世纪后期,随着人工授精和生殖克隆技术的出现,以细胞为基础的生物技术,特别是以哺乳动物或人类细胞为重点的生物技术出现了在此背景下,1998年美国威斯康星大学的科学家从人胚泡中分离出内细胞团并将其定性为干细胞,奠定了干细胞研究的基石表1总结了干细胞研究的时间顺序进展。在这个生物时代,全世界的科学家都在寻找利用干细胞固有潜力的替代治疗方法,这对治疗衰弱性疾病有很大的希望。不同来源和效力水平的干细胞正在被研究用于组织再生、骨缺损治疗、药物测试、基因治疗和细胞治疗肌肉损伤、脊髓损伤、癌症治疗等。本文主要介绍干细胞的类型及其多学科应用,主要是作为现代治疗中生物技术进步的工具。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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