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引用次数: 0
摘要
用于血糖监测的植入式传感器是开发植入式闭环糖尿病控制系统的第一步。尽管用于制备血管内和皮下装置的设计和化学已经取得了重大进展,但生物反应可能对此类探针的分析准确性产生巨大影响。为了帮助有效设计此类设备以保证临床性能,本文采用故障树分析法(Fault Tree Analysis, FTA)对植入式葡萄糖传感器失效的原因进行了研究,该方法依靠模糊推理来解释不确定性。所建议的方法可能对测量设备从一代到下一代的自我优化作出重大贡献,因为它支持灵活、特别和定制的传感器开发,从而促进流行病从统计到个性化的进展。
Investigating implantable glucose biosensors pitfalls: a fault tree analysis approach
Implantable sensors for glucose monitoring are the first step towards the development of an implantable closed-loop diabetes control system. Although significant advances in the designs and chemistries employed to prepare intravascular and subcutaneous devices have been achieved, the biological responses can have a dramatic impact on the analytical accuracy of such probes. With a view to assisting the effective design of such devices for assuring clinical performance, the causes of implantable glucose sensor failure have been investigated by means of Fault Tree Analysis (FTA) relying on fuzzy reasoning to account for uncertainty. The approach suggested may contribute significantly to the self-optimisation of the measuring equipment from one generation to the next as it supports the flexible, ad hoc, and tailor made sensor development, thus potentiating the progress of epidemics from statistics to individualisation.