University of Illinois Urbana-Champaign

Flexible, stretchable, and transient electronics for integration with the human body

Won, Sang M.

Content Files
WON-DISSERTATION-2019.pdf

Permalink

https://hdl.handle.net/2142/105584

Description

Title
Flexible, stretchable, and transient electronics for integration with the human body
Author(s)
Won, Sang M.
Issue Date
2019-05-29
Director of Research (if dissertation) or Advisor (if thesis)
  • Rogers, John A
  • Bashir, Rashid
Doctoral Committee Chair(s)
  • Rogers, John A
  • Bashir, Rashid
Committee Member(s)
  • Li, Xiuling
  • Cunningham, Brian T
  • Lyding, Joseph W
Department of Study
Electrical & Computer Eng
Discipline
Electrical & Computer Engr
Degree Granting Institution
University of Illinois at Urbana-Champaign
Degree Name
Ph.D.
Degree Level
Dissertation
Date of Ingest
2019-11-26T20:33:35Z
Keyword(s)
  • FLEXIBLE ELECTRONICS
  • STRETCHABLE ELECTRONICS
  • IMPLANTABLE ELECTRONICS
Abstract
Technologies capable of establishing intimate, long-lived interfaces to the human body have broad utility in continuous measurement of physiological status, with the potential to significantly lower tissue injury and irritation after implants. The development of such soft, biocompatible platforms and integrating them into a biotissue-interfaced system requires suitable choice of materials and engineered structures. Specific directions include overall miniaturization (e.g., Si nanomembrane) or composite material structure (e.g., carbon black doped elastomer) that provide effective mechanics to match those of biological tissues. This dissertation presents combined experimental and theoretical investigations of such functional systems that offer flexibility and stretchability, while maintaining operational performance and mechanical robustness. The dissertation begins with a fundamental study of responsive monocrystalline silicon nanomembrane as a flexible electromechanical sensor element. Subsequent chapters highlight integration with active components for wireless addressing, multiplexing, and local amplification, with multimodal operation in a thin, soft, skin-like platform. The resulting biointegrated system enables (1) sensitive health monitoring system, (2) multifunctional tactile sensor, (3) high-density neural interfaces, and (4) physically transient, implantable electronics, all with the capability of stable operation for long timeframes.
Graduation Semester
2019-08
Type of Resource
text
Permalink
http://hdl.handle.net/2142/105584
Copyright and License Information
Copyright 2019 Sang Won

Owning Collections

Dissertations and Theses - Electrical and Computer Engineering
Dissertations and Theses in Electrical and Computer Engineering
Graduate Dissertations and Theses at Illinois PRIMARY
Graduate Theses and Dissertations at Illinois