汗水
出汗
持续监测
生物医学工程
计算机科学
可穿戴计算机
连续血糖监测
前臂
化学
材料科学
医学
内科学
嵌入式系统
外科
糖尿病
内分泌学
复合材料
经济
血糖性
运营管理
作者
Tamoghna Saha,Muhammad Inam Khan,Samar S. Sandhu,Lu Yin,Sara Earney,Chenyang Zhang,Omeed Djassemi,Zongnan Wang,Jintong Han,Abdulhameed Abdal,S. K. Srivatsa,Shichao Ding,Joseph Wang
标识
DOI:10.1002/advs.202405518
摘要
Abstract The demand for glucose monitoring devices has witnessed continuous growth from the rising diabetic population. The traditional approach of blood glucose (BG) sensor strip testing generates only intermittent glucose readings. Interstitial fluid‐based devices measure glucose dynamically, but their sensing approaches remain either minimally invasive or prone to skin irritation. Here, a sweat glucose monitoring system is presented, which completely operates under rest with no sweat stimulation and can generate real‐time BG dynamics. Osmotically driven hydrogels, capillary action with paper microfluidics, and self‐powered enzymatic biochemical sensor are used for simultaneous sweat extraction, transport, and glucose monitoring, respectively. The osmotic forces facilitate greater flux inflow and minimize sweat rate fluctuations compared to natural perspiration‐based sampling. The epidermal platform is tested on fingertip and forearm under varying physiological conditions. Personalized calibration models are developed and validated to obtain real‐time BG information from sweat. The estimated BG concentration showed a good correlation with measured BG concentration, with all values lying in the A+B region of consensus error grid (MARD = 10.56% (fingertip) and 13.17% (forearm)). Overall, the successful execution of such osmotically driven continuous BG monitoring system from passive sweat can be a useful addition to the next‐generation continuous sweat glucose monitors.
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