| Literature DB >> 29735689 |
Yongkuk Lee1, Connor Howe2, Saswat Mishra1, Dong Sup Lee2, Musa Mahmood1, Matthew Piper2, Youngbin Kim2, Katie Tieu2, Hun-Soo Byun3, James P Coffey4, Mahdis Shayan5, Youngjae Chun5,6, Richard M Costanzo7, Woon-Hong Yeo8,9,10,11.
Abstract
Recent wearable devices offer portable monitoring of biopotentials, heart rate, or physical activity, allowing for active management of human health and wellness. Such systems can be inserted in the oral cavity for measuring food intake in regard to controlling eating behavior, directly related to diseases such as hypertension, diabetes, and obesity. However, existing devices using plastic circuit boards and rigid sensors are not ideal for oral insertion. A user-comfortable system for the oral cavity requires an ultrathin, low-profile, and soft electronic platform along with miniaturized sensors. Here, we introduce a stretchable hybrid electronic system that has an exceptionally small form factor, enabling a long-range wireless monitoring of sodium intake. Computational study of flexible mechanics and soft materials provides fundamental aspects of key design factors for a tissue-friendly configuration, incorporating a stretchable circuit and sensor. Analytical calculation and experimental study enables reliable wireless circuitry that accommodates dynamic mechanical stress. Systematic in vitro modeling characterizes the functionality of a sodium sensor in the electronics. In vivo demonstration with human subjects captures the device feasibility for real-time quantification of sodium intake, which can be used to manage hypertension.Entities:
Keywords: hypertension management; sodium intake quantification; stretchable hybrid electronics; wireless intraoral system
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Year: 2018 PMID: 29735689 PMCID: PMC6003521 DOI: 10.1073/pnas.1719573115
Source DB: PubMed Journal: Proc Natl Acad Sci U S A ISSN: 0027-8424 Impact factor: 11.205