尿失禁无线实时人工括约肌控制系统的设计

M. Ramesh, D. Raj, V. Sanjeevan Kalavampra, N. Dilraj
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引用次数: 11

摘要

尿失禁是老年人、自闭症儿童和糖尿病患者中最常见的健康问题,对生活质量有重大的社会和经济影响。据世卫组织称,有2000万人患有尿失禁。本文提出了一种集成架构,可以对患者膀胱进行持续监测,并利用无线电力传输实时远程触发无线人工括约肌系统。经分析,选择几种离子电活性聚合物(EAP)对尿道进行物理控制。本文阐述了利用EAP聚合物控制尿道的可能设计。本文分析了无线供电和数据传输的主要挑战及其对整个系统设计的影响。该系统提供了一种解决方案,可以持续监测膀胱,并向患者身体上的控制系统发送警报信息。一旦收到这些警报,患者就会远程触发人工括约肌控制系统,将尿液从膀胱中释放出来。因此,患者或护理人员可以监测膀胱内的压力,并通过从外部打开和关闭离子EAP夹来远程控制尿流量。本文对系统设计进行了不同参数的仿真和测试,并对其结果进行了讨论。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Design of wireless real time artificial sphincter control system for Urinary Incontinence
Urinary Incontinence is the most common health problem in old people, autistic kids and diabetic patients with significant social and economic impact in the quality of life. According to WHO, 20 million people are affected by Urinary Incontinence. This paper proposes an integrated architecture to continuously monitor the patients' bladder and remotely trigger the wireless artificial sphincter system using wireless power transfer in real time. After analysis, a few Ionic Electro Active Polymers (EAP) were selected to physically control the urethra. Possible designs using EAP polymer for urethra control are elaborated in this paper. This paper analyzes the major challenges of wireless power and data transfer and its impact on the design of the complete system. The proposed system provides a solution to continuously monitor the bladder and send alert messages to the control system that's on the patient's body. On receiving these alerts, patients' will remotely trigger the artificial sphincter control system to release the urine from their bladder. Thus the patients or caregivers can monitor the pressure inside their bladder and control urinal flow remotely by opening and closing the ionic EAP clip from outside. The system design has been simulated and tested with its different parameters and its results are discussed in this paper.
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