材料科学
导电体
接头(建筑物)
可穿戴计算机
电极
纳米片
弯曲
复合材料
纳米技术
微操作器
光电子学
织物
传输(电信)
响应时间
生物医学工程
可穿戴技术
超细纤维
阻力
灵敏度(控制系统)
声学
跟踪(教育)
信号(编程语言)
计算机科学
接触力
各向异性
作者
Peng Lin,Huihui Hou,Beibei Zhu,Pengtao Wang,Xiaolian Liu,Yu Li,Guodong Wang,Yan Wang,Junjun Wang
出处
期刊:Nano Letters
[American Chemical Society]
日期:2026-01-14
卷期号:26 (3): 975-983
被引量:1
标识
DOI:10.1021/acs.nanolett.5c04715
摘要
Flexible sensors are often constructed on polymeric or cellulosic substrates, which tend to compromise breathability for mechanical durability, leading to skin irritation and the limitation of long-term use. Here, we develop a monolithic breathable Ti3C2Tx@Spandex textile sensor that creates a continuous, gas-permeable conductive network for sensitive response transduction. Impregnated MXene nanosheets give 5.1% response to 300 ppm of NH3 with a response time of 14 s under folding deformations, full selectivity against 14 interfering gases, and 4 order of magnitude lower resistance (∼5.7 × 108 Ω) than that of bare Spandex (∼1.5 × 1012 Ω), yielding a signal-to-noise ratio of 20.5 at room temperature. The continuous conductive pathways survive 100% strain, maintain a water-vapor transmission rate of 1149–1268 g m–2 day–1, and resolve joint bending angles via reversible Ti3C2Tx nanosheet slippage. This breathable, skin-conformable patch enables point-of-care screening of both renal-exhaled NH3 and real-time joint kinematics.
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