Catheter-Free Urodynamics Testing: Current Insights and Clinical Potential

Benoît Vogt
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Abstract

Abstract Lower urinary tract dysfunction not only interferes with the health-related quality of life of patients but may also lead to acute kidney injury and infections. To assess the bladder, urodynamic studies (UDS) have been implemented but the use of catheters leads to discomfort for the patient. Catheter-free long-term UDS would be useful and a potential solution could be ambulatory wireless devices that communicate via telemetry. Such sensors can detect pressure or volume. Numerous types of potential catheter-free sensors have been proposed for bladder monitoring. Despite substantial innovation in the manufacturing of implantable biomedical electronic systems, such sensors have remained at the laboratory stage due to a number of critical challenges. These challenges primarily concern hermeticity and biocompatibility, sensitivity and artifacts, drift, telemetry, and energy management. Having overcome these challenges, catheter-free ambulatory urodynamic monitoring could combine a synchronized intravesical pressure sensor with a volume analyzer but only the steps of cystometry and volume measurement are currently sufficiently reproducible to simulate UDS results. The measurement of volume by infrared optical sensors, in the form of abdominal patches, appears to be promising and studies are underway to market a telemetric ambulatory urodynamic monitoring system that includes an intravesical pressure sensor. There has been considerable progress in wearable and conformable electronics on many fronts, and continued collaboration between engineers and urologists could quickly overcome current challenges. In addition, to the diagnosis of UDS, such sensors could be useful in the development of a long-term closed-loop neuromodulation system. In this review, we explore the various types of catheter-free bladder sensors, inherent challenges and solutions to overcome these challenges, and the clinical potential of such long-term implantable sensors.
无导管尿动力学测试:当前见解与临床潜力
摘要 下尿路功能障碍不仅影响患者与健康相关的生活质量,还可能导致急性肾损伤和感染。为了对膀胱进行评估,已经开展了尿动力学研究(UDS),但使用导尿管会给患者带来不适。无导尿管的长期尿动力学检查将非常有用,一种潜在的解决方案是通过遥测进行通信的移动无线设备。这种传感器可以检测压力或容量。目前已经提出了许多种潜在的无导管传感器,用于膀胱监测。尽管植入式生物医学电子系统的制造技术有了长足的进步,但由于一系列关键挑战,这类传感器仍停留在实验室阶段。这些挑战主要涉及密封性和生物兼容性、灵敏度和伪影、漂移、遥测和能量管理。在克服了这些挑战后,无导管动态尿动力学监测可将同步膀胱内压力传感器与尿量分析仪结合起来,但目前只有膀胱测量和尿量测量这两个步骤的重现性足以模拟 UDS 结果。通过腹部贴片形式的红外光学传感器测量尿量似乎很有前景,目前正在研究将包括膀胱内压力传感器的遥测动态尿动力学监测系统推向市场。可穿戴和可适配电子设备在许多方面都取得了长足的进步,工程师和泌尿科医生之间的持续合作可以迅速克服当前的挑战。除了 UDS 诊断外,此类传感器还有助于开发长期闭环神经调节系统。在这篇综述中,我们将探讨各种类型的无导管膀胱传感器、固有的挑战和克服这些挑战的解决方案,以及这种长期植入式传感器的临床潜力。
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