Department of Chemical and Petroleum Engineering, Swanson School of Engineering, University of Pittsburgh, 1249 Benedum Hall, Pittsburgh, PA 15261, USA.
J R Soc Interface. 2010 Jul 6;7(48):989-1013. doi: 10.1098/rsif.2009.0517. Epub 2010 Feb 10.
The complexity of the systemic inflammatory response and the lack of a treatment breakthrough in the treatment of pathogenic infection demand that advanced tools be brought to bear in the treatment of severe sepsis and trauma. Systems medicine, the translational science counterpart to basic science's systems biology, is the interface at which these tools may be constructed. Rapid initial strides in improving sepsis treatment are possible through the use of phenomenological modelling and optimization tools for process understanding and device design. Higher impact, and more generalizable, treatment designs are based on mechanistic understanding developed through the use of physiologically based models, characterization of population variability, and the use of control-theoretic systems engineering concepts. In this review we introduce acute inflammation and sepsis as an example of just one area that is currently underserved by the systems medicine community, and, therefore, an area in which contributions of all types can be made.
全身炎症反应的复杂性以及治疗病原体感染方面缺乏突破性疗法,这都要求在严重脓毒症和创伤的治疗中引入先进的工具。系统医学是基础科学的系统生物学的转化科学对应物,是构建这些工具的接口。通过使用现象学建模和优化工具来了解过程和设计设备,可以在改善脓毒症治疗方面取得快速的初步进展。通过使用基于生理学的模型、人群变异性的特征描述以及控制理论系统工程概念来获得更具影响力和更具普遍性的治疗设计。在这篇综述中,我们以急性炎症和脓毒症为例,介绍了一个目前还没有得到系统医学领域充分关注的领域,因此,所有类型的贡献都可以在这个领域中得到体现。