Development of a hybrid manikin for extra-uterine life support technology innovation.

J S van Haren, B G van Willigen, C M van Riet, W J Loor, J R van den Broek, J Sterk, C Amendola, K Verschueren, M W H Thielen, M B van der Hout-van der Jagt, F L M Delbressine
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Abstract

Background: Preclinical studies have shown successful maintenance of fetuses on extra-uterine life support technology. This technology has the potential to offer a liquid-based alternative for the care of extremely premature infants.

Methods: To bridge the gap between preclinical research and clinical translation, and to provide a low-risk environment, we developed a hybrid fetal manikin to complement animal studies and facilitate technology development and clinician training. Through these fetal manikins, characteristics of extremely premature infants can be mimicked through integrated actuators that respond to physiological parameters, which are monitored through integrated sensors.

Results: Utilizing clinical data, we designed the manikin to realistically replicate anatomical structures, physiological properties, and symptom display. A wireless connection to a fetal digital twin enables sensor data transmission and downstream cascade calculations for symptom display on the manikin. Evaluation included qualitative and quantitative realism assessments, either comparing with patient data or clinician assessments.

Conclusions: Our study demonstrates the applicability and potential of using simulation technologies for high-risk, human-centered MedTech development. It allows expanding stakeholder involvement during development, and it may better equip a medical team through simulation training and enhance the technology development.

一种用于子宫外生命维持技术创新的混合人体模型的研制。
背景:临床前研究表明子宫外生命支持技术对胎儿的维持是成功的。这项技术有可能为极早产儿的护理提供一种基于液体的替代方案。方法:为了弥补临床前研究和临床转化之间的差距,并提供一个低风险的环境,我们开发了一种杂交胎儿人体模型,以补充动物研究,促进技术开发和临床医生培训。通过这些胎儿人体模型,可以通过集成的致动器来模仿极早产儿的特征,这些致动器对生理参数做出反应,这些生理参数通过集成的传感器进行监测。结果:利用临床数据,我们设计的人体模型能够真实地复制解剖结构、生理特性和症状表现。与胎儿数字双胞胎的无线连接使传感器数据传输和下游级联计算能够在人体模型上显示症状。评估包括定性和定量现实性评估,比较患者数据或临床医生评估。结论:我们的研究证明了在高风险、以人为本的医疗技术开发中使用模拟技术的适用性和潜力。它允许在开发过程中扩大利益相关者的参与,并且可以通过模拟培训更好地装备医疗团队并加强技术开发。
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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