Glass half full: Non-invasive bladder biosensors for urinary volume monitoring in the neurogenic pediatric population.

IF 0.8 Q4 PEDIATRICS
Serena Ly, Eric A Kurzrock
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引用次数: 0

Abstract

PurposeThe goal was to elucidate and present the current landscape of bladder biosensor technology for urinary volume monitoring in the management of neurogenic bladder. The need for such technology in managing neurogenic bladder in the pediatric population is discussed, as well as the challenges researchers currently face in advancing individual technologies.MethodsA literature review including 43 articles discussing bladder biosensor and related technology for continuous urinary volume monitoring was conducted. Articles ranged from original research studies to systematic reviews.ResultsVarious continuous bladder urine volume monitoring devices have been proposed and evaluated. These devices utilize principles of ultrasound, electrical impedance tomography, near infrared spectroscopy, pressure biosensor implantation, microwave radar, and frequency modulated continuous wave radar. While several studies have shown promise in correlating device measurements to bladder urinary volume changes, ultimately researchers have not been able to surmount the challenges of optimizing configuration of device components and the impacts of dynamic position, posture, body habitus, bladder location, and urine biochemical properties that demonstrate high interpersonal variability.ConclusionThe need for developing bladder biosensor technology to provide continuous urine volume monitoring in patients with neurogenic bladder remains great. Transitioning from a time-based clean intermittent catheterization approach to a volume-based approach would possibly improve neurogenic bladder patients' quality of life. While technologies face limitations that have stalled translation to clinical practice, there is potential to build upon past work to address current challenges and meet this ever-pressing need.

玻璃杯半满:用于神经源性儿科人群尿量监测的非侵入性膀胱生物传感器。
目的阐述膀胱生物传感器技术在神经源性膀胱治疗中尿量监测的现状。讨论了这种技术在小儿神经源性膀胱治疗中的必要性,以及研究人员目前在推进个体技术方面面临的挑战。方法回顾性分析43篇膀胱生物传感器及相关技术在尿量连续监测中的应用。文章的范围从原始研究到系统评论。结果提出并评价了多种连续膀胱尿量监测装置。这些设备利用超声波、电阻抗断层扫描、近红外光谱、压力生物传感器植入、微波雷达和调频连续波雷达的原理。虽然有几项研究显示了将设备测量与膀胱尿量变化相关联的希望,但最终研究人员无法克服优化设备组件配置的挑战,以及动态位置、姿势、身体习惯、膀胱位置和尿液生化特性的影响,这些都显示出高度的人际变异性。结论发展膀胱生物传感器技术为神经源性膀胱患者提供连续尿量监测的需求仍然很大。从基于时间的清洁间歇导尿方法过渡到基于容量的导尿方法可能会改善神经源性膀胱患者的生活质量。虽然技术面临的限制阻碍了转化为临床实践,但有可能在过去的工作基础上解决当前的挑战并满足这一日益紧迫的需求。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
CiteScore
2.30
自引率
5.30%
发文量
139
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