Gagna Claude E, Winokur Dena, Clark Lambert W
Department of Pathology and Laboratory Medicine, University of Medicine and Dentistry of New Jersey-Medical School, 185 S. Orange Avenue, Newark, NJ 07103, USA.
Cell Biol Int. 2004;28(11):755-64. doi: 10.1016/j.cellbi.2004.07.006.
The scientific techniques used in molecular biological research and drug discovery have changed dramatically over the past 10 years due to the influence of genomics, proteomics and bioinformatics. Furthermore, genomics and functional genomics are now merging into a new scientific approach called chemogenomics. Advancements in the study of molecular cell biology are dependent upon "omics" researchers realizing the importance of and using the experimental tools currently available to cell biologists. For example, novel microscopic techniques utilizing advanced computer imaging allow for the examination of live specimens in a fourth dimension, viz., time. Yet, molecular biologists have not taken full advantage of these and other traditional and novel cell biology techniques for the further advancement of genomic and proteomic-oriented research. The application of traditional and novel cellular biological techniques will enhance the science of genomics. The authors hypothesize that a stronger interdisciplinary approach must be taken between cell biology (and its closely related fields) and genomics, proteomics and bio-chemoinformatics. Since there is a lot of confusion regarding many of the "omics" definitions, this article also clarifies some of the basic terminology used in genomics, and related fields. It also reviews the current status and future potential of chemogenomics and its relationship to cell biology. The authors also discuss and expand upon the differences between chemogenomics and the relatively new term--chemoproteomics. We conclude that the advances in cell biology methods and approaches and their adoption by "omics" researchers will allow scientists to maximize our knowledge about life.
在过去十年中,由于基因组学、蛋白质组学和生物信息学的影响,分子生物学研究和药物发现中使用的科学技术发生了巨大变化。此外,基因组学和功能基因组学目前正在融合成一种称为化学基因组学的新科学方法。分子细胞生物学研究的进展取决于“组学”研究人员认识到细胞生物学家目前可用的实验工具的重要性并加以利用。例如,利用先进计算机成像的新型显微镜技术能够在第四个维度即时间上对活标本进行检查。然而,分子生物学家尚未充分利用这些以及其他传统和新型细胞生物学技术来进一步推进以基因组学和蛋白质组学为导向的研究。传统和新型细胞生物学技术的应用将提升基因组学科学。作者假设细胞生物学(及其密切相关领域)与基因组学、蛋白质组学和生物化学信息学之间必须采取更强有力的跨学科方法。由于许多“组学”定义存在很多混淆,本文还澄清了基因组学及相关领域中使用的一些基本术语。它还回顾了化学基因组学的现状和未来潜力及其与细胞生物学的关系。作者还讨论并详述了化学基因组学与相对较新的术语——化学蛋白质组学之间的差异。我们得出结论,细胞生物学方法和途径的进展以及“组学”研究人员对其的采用将使科学家能够最大限度地增加我们对生命的认识。