Multifunctional porous soft composites for bimodal wearable cardiac monitors

Author:

Chen Zehua1ORCID,Chen Sicheng1,Andrabi Syed Muntazir2,Zhao Ganggang3,Xu Yadong4,Ouyang Qunle3,Busquets Milton E.2,Qian Xiaoyan1,Gautam Sandeep5,Chen Pai‐Yen6,Xie Jingwei2,Yan Zheng1378

Affiliation:

1. Department of Chemical and Biomedical Engineering University of Missouri Columbia Missouri USA

2. Department of Surgery‐Transplant and Mary and Dick Holland Regenerative Medicine Program University of Nebraska Medical Center Omaha Nebraska USA

3. Department of Mechanical & Aerospace Engineering University of Missouri Columbia Missouri USA

4. Andrew and Peggy Cherng Department of Medical Engineering, Division of Engineering and Applied Science California Institute of Technology Pasadena California USA

5. Division of Cardiovascular Medicine University of Missouri‐Columbia Columbia Missouri USA

6. Department of Electrical and Computer Engineering University of Illinois Chicago Illinois USA

7. Materials Science and Engineering Institute University of Missouri Columbia Missouri USA

8. NextGen Precision Health University of Missouri Columbia Missouri USA

Abstract

AbstractWearable heart monitors are crucial for early diagnosis and treatment of heart diseases in non‐clinical settings. However, their long‐term applications require skin‐interfaced materials that are ultrasoft, breathable, antibacterial, and possess robust, enduring on‐skin adherence—features that remain elusive. Here, we have developed multifunctional porous soft composites that meet all these criteria for skin‐interfaced bimodal cardiac monitoring. The composite consists of a bilayer structure featuring phase‐separated porous elastomer and slot‐die‐coated biogel. The porous elastomer ensures ultrasoftness, breathability, ease of handling, and mechanical integrity, while the biogel enables long‐term on‐skin adherence. Additionally, we incorporated ε‐polylysine in the biogel to offer antibacterial properties. Also, the conductive biogel embedded with silver nanowires was developed for use in electrocardiogram sensors to reduce contact impedance and ensure high‐fidelity recordings. Furthermore, we assembled a bimodal wearable cardiac monitoring system that demonstrates high‐fidelity recordings of both cardiac electrical (electrocardiogram) and mechanical (seismocardiogram) signals over a 14‐day testing period.

Funder

National Institute of Biomedical Imaging and Bioengineering

University of Missouri

Publisher

Wiley

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