Brugués Albert, Bromuri Stefano, Barry Michael, Del Toro Óscar Jiménez, Mazurkiewicz Maciej R, Kardas Przemyslaw, Pegueroles Josep, Schumacher Michael
University of Applied Sciences Western Switzerland (HES-SO), Techno-Pôle 3, 3960, Sierre, Switzerland.
Universitat Politècnica de Catalunya - BarcelonaTech (UPC), Campus Nord, Edif. C3, C. Jordi Girona, 1-3, 08034, Barcelona, Spain.
J Med Syst. 2016 Feb;40(2):44. doi: 10.1007/s10916-015-0377-1. Epub 2015 Nov 21.
The focus of this research is in the definition of programmable expert Personal Health Systems (PHS) to monitor patients affected by chronic diseases using agent oriented programming and mobile computing to represent the interactions happening amongst the components of the system. The paper also discusses issues of knowledge representation within the medical domain when dealing with temporal patterns concerning the physiological values of the patient. In the presented agent based PHS the doctors can personalize for each patient monitoring rules that can be defined in a graphical way. Furthermore, to achieve better scalability, the computations for monitoring the patients are distributed among their devices rather than being performed in a centralized server. The system is evaluated using data of 21 diabetic patients to detect temporal patterns according to a set of monitoring rules defined. The system's scalability is evaluated by comparing it with a centralized approach. The evaluation concerning the detection of temporal patterns highlights the system's ability to monitor chronic patients affected by diabetes. Regarding the scalability, the results show the fact that an approach exploiting the use of mobile computing is more scalable than a centralized approach. Therefore, more likely to satisfy the needs of next generation PHSs. PHSs are becoming an adopted technology to deal with the surge of patients affected by chronic illnesses. This paper discusses architectural choices to make an agent based PHS more scalable by using a distributed mobile computing approach. It also discusses how to model the medical knowledge in the PHS in such a way that it is modifiable at run time. The evaluation highlights the necessity of distributing the reasoning to the mobile part of the system and that modifiable rules are able to deal with the change in lifestyle of the patients affected by chronic illnesses.
本研究的重点是定义可编程专家个人健康系统(PHS),该系统使用面向代理的编程和移动计算来监测慢性病患者,以呈现系统组件之间发生的交互。本文还讨论了在处理与患者生理值相关的时间模式时医学领域内的知识表示问题。在所提出的基于代理的PHS中,医生可以为每个患者个性化定制以图形方式定义的监测规则。此外,为了实现更好的可扩展性,监测患者的计算分布在他们的设备之间,而不是在集中式服务器中执行。使用21名糖尿病患者的数据对该系统进行评估,以根据定义的一组监测规则检测时间模式。通过将其与集中式方法进行比较来评估系统的可扩展性。关于时间模式检测的评估突出了该系统监测糖尿病慢性病患者的能力。关于可扩展性,结果表明利用移动计算的方法比集中式方法更具可扩展性。因此,更有可能满足下一代PHS的需求。PHS正成为一种被采用的技术,以应对受慢性病影响患者数量的激增。本文讨论了通过使用分布式移动计算方法使基于代理的PHS更具可扩展性的架构选择。它还讨论了如何在PHS中对医学知识进行建模,使其在运行时可修改。评估强调了将推理分布到系统移动部分的必要性,以及可修改规则能够应对受慢性病影响患者生活方式变化的能力。