DNA fingerprinting in zoology: past, present, future.

Geoffrey K Chambers, Caitlin Curtis, Craig D Millar, Leon Huynen, David M Lambert
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引用次数: 50

Abstract

In 1962, Thomas Kuhn famously argued that the progress of scientific knowledge results from periodic 'paradigm shifts' during a period of crisis in which new ideas dramatically change the status quo. Although this is generally true, Alec Jeffreys' identification of hypervariable repeat motifs in the human beta-globin gene, and the subsequent development of a technology known now as 'DNA fingerprinting', also resulted in a dramatic shift in the life sciences, particularly in ecology, evolutionary biology, and forensics. The variation Jeffreys recognized has been used to identify individuals from tissue samples of not just humans, but also of many animal species. In addition, the technology has been used to determine the sex of individuals, as well as paternity/maternity and close kinship. We review a broad range of such studies involving a wide diversity of animal species. For individual researchers, Jeffreys' invention resulted in many ecologists and evolutionary biologists being given the opportunity to develop skills in molecular biology to augment their whole organism focus. Few developments in science, even among the subsequent genome discoveries of the 21st century, have the same wide-reaching significance. Even the later development of PCR-based genotyping of individuals using microsatellite repeats sequences, and their use in determining multiple paternity, is conceptually rooted in Alec Jeffreys' pioneering work.

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DNA指纹在动物学中的应用:过去,现在,未来。
1962年,托马斯·库恩(Thomas Kuhn)提出了一个著名的观点,即科学知识的进步是在危机时期周期性的“范式转变”的结果,在危机时期,新思想会极大地改变现状。虽然这通常是正确的,但亚历克·杰弗里斯(Alec Jeffreys)对人类-珠蛋白基因中高可变重复基序的识别,以及后来被称为“DNA指纹”的技术的发展,也导致了生命科学的巨大转变,特别是在生态学、进化生物学和法医学方面。杰弗里斯发现的变异不仅被用来从人类的组织样本中识别个体,还被用来从许多动物物种的组织样本中识别个体。此外,该技术还被用于确定个体的性别,以及父系/母系和近亲关系。我们回顾了广泛的涉及动物物种多样性的此类研究。对于个人研究人员来说,杰弗里斯的发明给许多生态学家和进化生物学家提供了发展分子生物学技能的机会,以增强他们对整个有机体的关注。在科学领域,甚至在21世纪随后的基因组发现中,很少有科学发展具有如此广泛的意义。甚至后来利用微卫星重复序列对个体进行基于pcr的基因分型的发展,以及它们在确定多父关系中的应用,在概念上都植根于Alec Jeffreys的开创性工作。
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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