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虚拟生理人:十年之后

The Virtual Physiological Human: Ten Years After.

机构信息

Department of Mechanical Engineering and Insigneo Institute for in silico Medicine, University of Sheffield, Sheffield S1 3JD, United Kingdom; email:

Auckland Bioengineering Institute, University of Auckland, Auckland 1142, New Zealand.

出版信息

Annu Rev Biomed Eng. 2016 Jul 11;18:103-23. doi: 10.1146/annurev-bioeng-110915-114742.

Abstract

Biomedical research and clinical practice are struggling to cope with the growing complexity that the progress of health care involves. The most challenging diseases, those with the largest socioeconomic impact (cardiovascular conditions; musculoskeletal conditions; cancer; metabolic, immunity, and neurodegenerative conditions), are all characterized by a complex genotype-phenotype interaction and by a "systemic" nature that poses a challenge to the traditional reductionist approach. In 2005 a small group of researchers discussed how the vision of computational physiology promoted by the Physiome Project could be translated into clinical practice and formally proposed the term Virtual Physiological Human. Our knowledge about these diseases is fragmentary, as it is associated with molecular and cellular processes on the one hand and with tissue and organ phenotype changes (related to clinical symptoms of disease conditions) on the other. The problem could be solved if we could capture all these fragments of knowledge into predictive models and then compose them into hypermodels that help us tame the complexity that such systemic behavior involves. In 2005 this was simply not possible-the necessary methods and technologies were not available. Now, 10 years later, it seems the right time to reflect on the original vision, the results achieved so far, and what remains to be done.

摘要

生物医学研究和临床实践正在努力应对医疗保健进步所带来的日益复杂的问题。最具挑战性的疾病,那些具有最大社会经济影响的疾病(心血管疾病;肌肉骨骼疾病;癌症;代谢、免疫和神经退行性疾病),都具有复杂的基因型-表型相互作用和“系统性”特征,这对传统的还原论方法构成了挑战。2005 年,一小群研究人员讨论了计算生理学的愿景如何通过 Physiome 项目转化为临床实践,并正式提出了“虚拟生理人”一词。我们对这些疾病的认识是零碎的,因为它一方面与分子和细胞过程有关,另一方面与组织和器官表型变化(与疾病的临床症状有关)有关。如果我们能够将所有这些知识片段捕获到预测模型中,然后将它们组合成超模型,以帮助我们驾驭这种系统行为所涉及的复杂性,那么这个问题就可以得到解决。2005 年,这根本不可能——必要的方法和技术还不存在。现在,10 年过去了,是时候反思最初的愿景、迄今为止取得的成果以及还有哪些工作要做了。

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