Conformal skin bioelectronics for portable 3-lead ECG

As healthcare systems worldwide face resource limitations, governments and research institutes are investing more into preventative healthcare initiatives. In this regard, conformal bioelectronics hold a significant advantage over conventional bulky and rigid equipment in terms of portability and...

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Main Author: Wang, Ruijie
Other Authors: Chen Xiaodong
Format: Final Year Project
Language:English
Published: Nanyang Technological University 2023
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Online Access:https://hdl.handle.net/10356/166582
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Institution: Nanyang Technological University
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spelling sg-ntu-dr.10356-1665822023-05-08T12:55:27Z Conformal skin bioelectronics for portable 3-lead ECG Wang, Ruijie Chen Xiaodong School of Materials Science and Engineering chenxd@ntu.edu.sg Engineering::Materials::Biomaterials As healthcare systems worldwide face resource limitations, governments and research institutes are investing more into preventative healthcare initiatives. In this regard, conformal bioelectronics hold a significant advantage over conventional bulky and rigid equipment in terms of portability and user experience. However, the lack of mature flexible electronics ecosystem is a limiting factor for their development. To address the mechanical property mismatch between rigid microelectronic components, flexible substrates, and human tissue, a technique to unify these materials cohesively is urgently required to provide a reliable platform for future innovation. In contrast to various proposed methodologies, this project presents screen-printing of electronic circuits using silver electronic paste for fabricating conformal wearable devices. This study demonstrated the feasibility and benefits (simplicity, versatility and scalability) of this approach by fabricating a 3-lead ECG bilayer circuit on a PDMS substrate. The resulting product was thin, comfortable, and imperceptibly transparent whilst conforming tightly to the epidermis. Preliminary characterization presented high resolution patterns with low contact resistance at ±2Ω and negligible variance in width modulation for fine prints at sub-millimetre scale. By incorporating viaholes in the circuit design, multilayer circuits can be fabricated to fit multiple functions in a small area. In summary, this research serves as a feasibility study for initiating the development of novel flexible bioelectronics with broad applications, particularly for monitoring biophysiological signals. Bachelor of Engineering (Materials Engineering) 2023-05-05T08:06:27Z 2023-05-05T08:06:27Z 2023 Final Year Project (FYP) Wang, R. (2023). Conformal skin bioelectronics for portable 3-lead ECG. Final Year Project (FYP), Nanyang Technological University, Singapore. https://hdl.handle.net/10356/166582 https://hdl.handle.net/10356/166582 en application/pdf Nanyang Technological University
institution Nanyang Technological University
building NTU Library
continent Asia
country Singapore
Singapore
content_provider NTU Library
collection DR-NTU
language English
topic Engineering::Materials::Biomaterials
spellingShingle Engineering::Materials::Biomaterials
Wang, Ruijie
Conformal skin bioelectronics for portable 3-lead ECG
description As healthcare systems worldwide face resource limitations, governments and research institutes are investing more into preventative healthcare initiatives. In this regard, conformal bioelectronics hold a significant advantage over conventional bulky and rigid equipment in terms of portability and user experience. However, the lack of mature flexible electronics ecosystem is a limiting factor for their development. To address the mechanical property mismatch between rigid microelectronic components, flexible substrates, and human tissue, a technique to unify these materials cohesively is urgently required to provide a reliable platform for future innovation. In contrast to various proposed methodologies, this project presents screen-printing of electronic circuits using silver electronic paste for fabricating conformal wearable devices. This study demonstrated the feasibility and benefits (simplicity, versatility and scalability) of this approach by fabricating a 3-lead ECG bilayer circuit on a PDMS substrate. The resulting product was thin, comfortable, and imperceptibly transparent whilst conforming tightly to the epidermis. Preliminary characterization presented high resolution patterns with low contact resistance at ±2Ω and negligible variance in width modulation for fine prints at sub-millimetre scale. By incorporating viaholes in the circuit design, multilayer circuits can be fabricated to fit multiple functions in a small area. In summary, this research serves as a feasibility study for initiating the development of novel flexible bioelectronics with broad applications, particularly for monitoring biophysiological signals.
author2 Chen Xiaodong
author_facet Chen Xiaodong
Wang, Ruijie
format Final Year Project
author Wang, Ruijie
author_sort Wang, Ruijie
title Conformal skin bioelectronics for portable 3-lead ECG
title_short Conformal skin bioelectronics for portable 3-lead ECG
title_full Conformal skin bioelectronics for portable 3-lead ECG
title_fullStr Conformal skin bioelectronics for portable 3-lead ECG
title_full_unstemmed Conformal skin bioelectronics for portable 3-lead ECG
title_sort conformal skin bioelectronics for portable 3-lead ecg
publisher Nanyang Technological University
publishDate 2023
url https://hdl.handle.net/10356/166582
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