Irwin Richard D, Boorman Gary A, Cunningham Michael L, Heinloth Alexandra N, Malarkey David E, Paules Richard S
Environmental Toxicology Program, National Institute of Environmental Health Sciences, Research Triangle Park, North Carolina 27709, USA.
Toxicol Pathol. 2004 Mar-Apr;32 Suppl 1:72-83. doi: 10.1080/01926230490424752.
Toxicology and the practice of pathology are rapidly evolving in the postgenomic era. Observable treatment related changes have been the hallmark of toxicology studies. Toxicogenomics is a powerful new tool that may show gene and protein changes earlier and at treatment levels below the limits of detection of traditional measures of toxicity. It may also aid in the understanding of toxic mechanisms. It is important to remember that it is only a tool and will provide meaningful results only when properly applied. As is often the case with new experimental tools, the initial utilization is driven more by the technology than application to problem solving. Toxicogenomics is interdisciplinary in nature including at a minimum, pathology, toxicology, and genomics. Most studies will require the input from the disciplines of toxicology, pathology, molecular biology, bioinformatics, biochemistry, and others depending on the types of questions being asked.
在基因组时代之后,毒理学和病理学实践正在迅速发展。可观察到的与治疗相关的变化一直是毒理学研究的标志。毒理基因组学是一种强大的新工具,它可能在低于传统毒性检测限度的治疗水平下更早地显示基因和蛋白质变化。它还可能有助于理解毒性机制。重要的是要记住,它只是一种工具,只有在正确应用时才会提供有意义的结果。正如新实验工具经常出现的情况那样,最初的应用更多是由技术驱动,而不是应用于解决问题。毒理基因组学本质上是跨学科的,至少包括病理学、毒理学和基因组学。大多数研究将需要毒理学、病理学、分子生物学、生物信息学、生物化学等学科的投入,这取决于所提出问题的类型。