TY - JOUR
T1 - A Breathable, Dual-Parameter, User-Friendly Pulse Sensing Array Based on Hierarchical Leather Composite for Continuous, Accurate, and Wireless Blood Pressure Monitoring
AU - Pan, Yujiang
AU - Zou, Binghua
AU - Chen, Huizhi
AU - Yao, Dijie
AU - Zhu, Jingyu
AU - Xu, Haitao
AU - Xie, Ruijie
AU - Gui, Xuchun
AU - Tao, Kai
AU - Huang, Zhan Peng
AU - Zhang, Pengchao
AU - Pan, Shaowu
AU - Qian, Kai
AU - Huo, Fengwei
AU - Wu, Jin
N1 - Publisher Copyright:
© 2026 Wiley-VCH GmbH.
PY - 2026/6/15
Y1 - 2026/6/15
N2 - Continuous, accurate blood pressure monitoring is critical for preventing and diagnosing hypertension-related diseases. However, current continuous monitoring devices are bulky and expensive, restricting their widespread use in early diagnosis. Furthermore, existing pulse-based sensing systems overlook user challenges in wearing comfort, pulse positioning, and susceptibility to acquisition conditions. Here, we develop a breathable, accurate, and integrated blood pressure monitoring system based on a flexible pressure sensor array, which is fabricated by patterned carboxylated carbon nanotube functionalized leather hierarchical composites. This array not only achieves high pulse sensing performance, featuring high fidelity, long-term durability (> 7 months), rapid response (70 ms) and recovery time (60 ms), but also retains the inherent moisture permeability (8.3 g•m−2•h−1) and degradability of leather. Meanwhile, the sensor array is crosstalk-free and can significantly improve the success rate of pulse signal acquisition positioning. It features dynamic-static dual-parameter pressure sensing, and when combined with signal acquisition circuitry, enables decoupling pulse wave signals and wearing pressure from a single sensor—providing richer data for more accurate blood pressure estimation. Integrated with a trained neural network for blood pressure estimation, the AI-empowered system enables continuous, accurate, and reliable monitoring, highlighting its potential in personalized health management and early hypertension diagnosis.
AB - Continuous, accurate blood pressure monitoring is critical for preventing and diagnosing hypertension-related diseases. However, current continuous monitoring devices are bulky and expensive, restricting their widespread use in early diagnosis. Furthermore, existing pulse-based sensing systems overlook user challenges in wearing comfort, pulse positioning, and susceptibility to acquisition conditions. Here, we develop a breathable, accurate, and integrated blood pressure monitoring system based on a flexible pressure sensor array, which is fabricated by patterned carboxylated carbon nanotube functionalized leather hierarchical composites. This array not only achieves high pulse sensing performance, featuring high fidelity, long-term durability (> 7 months), rapid response (70 ms) and recovery time (60 ms), but also retains the inherent moisture permeability (8.3 g•m−2•h−1) and degradability of leather. Meanwhile, the sensor array is crosstalk-free and can significantly improve the success rate of pulse signal acquisition positioning. It features dynamic-static dual-parameter pressure sensing, and when combined with signal acquisition circuitry, enables decoupling pulse wave signals and wearing pressure from a single sensor—providing richer data for more accurate blood pressure estimation. Integrated with a trained neural network for blood pressure estimation, the AI-empowered system enables continuous, accurate, and reliable monitoring, highlighting its potential in personalized health management and early hypertension diagnosis.
KW - continuous blood pressure monitoring
KW - degradable leather hierarchical structure
KW - flexible pressure/pulse sensor array
KW - health management and early diagnosis
KW - patterned leather composite
UR - https://www.scopus.com/pages/publications/105039956048
U2 - 10.1002/adfm.202532013
DO - 10.1002/adfm.202532013
M3 - 文章
AN - SCOPUS:105039956048
SN - 1616-301X
VL - 36
JO - Advanced Functional Materials
JF - Advanced Functional Materials
IS - 48
M1 - e32013
ER -