Oh Seyong, Yoo Jae-Young, Maeng Woo-Youl, Yoo Seonggwang, Yang Tianyu, Slattery Susan M, Pessano Sara, Chang Emily, Jeong Hyoyoung, Kim Jihye, Ahn Hak-Young, Kim Yeongdo, Kim Joohee, Xu Shuai, Weese-Mayer Debra E, Rogers John A
Division of Electrical Engineering, Hanyang University ERICA, Ansan, 15588, Republic of Korea; Querrey Simpson Institute for Bioelectronics, Northwestern University, Evanston, IL, 60208, USA.
Querrey Simpson Institute for Bioelectronics, Northwestern University, Evanston, IL, 60208, USA.
Biosens Bioelectron. 2023 Oct 1;237:115545. doi: 10.1016/j.bios.2023.115545. Epub 2023 Jul 26.
Temperature is the most commonly collected vital sign in all of clinical medicine; it plays a critical role in care decisions related to topics ranging from infection to inflammation, sleep, and fertility. Most assessments of body temperature occur at isolated anatomical locations (e.g. axilla, rectum, temporal artery, or oral cavity). Even this relatively primitive mode for monitoring can be challenging with vulnerable patient populations due to physical encumbrances and artifacts associated with the sizes, weights, shapes and mechanical properties of the sensors and, for continuous monitoring, their hard-wired interfaces to data collection units. Here, we introduce a simple, miniaturized, lightweight sensor as a wireless alternative, designed to address demanding applications such as those related to the care of neonates in high ambient humidity environments with radiant heating found in incubators in intensive care units. Such devices can be deployed onto specific anatomical locations of premature infants for homeostatic assessments. The estimated core body temperature aligns, to within 0.05 °C, with clinical grade, wired sensors, consistent with regulatory medical device requirements. Time-synchronized, multi-device operation across multiple body locations supports continuous, full-body measurements of spatio-temporal variations in temperature and additional modes of determining tissue health status in the context of sepsis detection and various environmental exposures. In addition to thermal sensing, these same devices support measurements of a range of other essential vital signs derived from thermo-mechanical coupling to the skin, for applications ranging from neonatal and infant care to sleep medicine and even pulmonary medicine.
体温是临床医学中最常采集的生命体征;它在从感染到炎症、睡眠和生育等相关护理决策中起着关键作用。大多数体温评估是在孤立的解剖部位(如腋窝、直肠、颞动脉或口腔)进行的。即便这种相对原始的监测方式,对于脆弱的患者群体来说也可能具有挑战性,这是由于传感器的尺寸、重量、形状和机械性能所带来的物理阻碍和干扰,以及在连续监测时,它们与数据采集单元的硬线连接。在此,我们推出一种简单、小型化、轻量化的传感器作为无线替代方案,旨在满足诸如重症监护病房中保育箱内高环境湿度且有辐射加热的环境下新生儿护理等苛刻应用。这种设备可部署到早产儿的特定解剖部位进行稳态评估。估计的核心体温与临床级有线传感器的体温相差在0.05°C以内,符合医疗设备监管要求。跨多个身体部位的时间同步、多设备操作支持对温度的时空变化进行连续、全身测量,以及在败血症检测和各种环境暴露情况下确定组织健康状态的其他模式。除了热感测外,这些相同的设备还支持测量一系列源自与皮肤热机械耦合的其他重要生命体征,适用于从新生儿和婴儿护理到睡眠医学甚至肺病学等各种应用。