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Shinjae Kwon

Researcher at Georgia Institute of Technology

Publications -  26
Citations -  551

Shinjae Kwon is an academic researcher from Georgia Institute of Technology. The author has contributed to research in topics: Wearable computer & Computer science. The author has an hindex of 7, co-authored 20 publications receiving 191 citations.

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All-printed nanomembrane wireless bioelectronics using a biocompatible solderable graphene for multimodal human-machine interfaces.

TL;DR: A new class of additive nanomanufacturing of functional materials that enables a wireless, multilayered, seamlessly interconnected, and flexible hybrid electronic system that yields all-printed nanomaterial-based wireless electronics.
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All-in-One, Wireless, Stretchable Hybrid Electronics for Smart, Connected, and Ambulatory Physiological Monitoring.

TL;DR: An all‐in‐one, wireless, stretchable hybrid electronics with key capabilities for real‐time physiological monitoring, automatic detection of signal abnormality via deep‐learning, and a long‐range wireless connectivity is introduced.
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Fully Integrated, Stretchable, Wireless Skin-Conformal Bioelectronics for Continuous Stress Monitoring in Daily Life.

TL;DR: Simultaneous comparison with two commercial stress monitors captures the enhanced performance of SKINTRONICS in long‐term wearability, minimal noise, and skin compatibility.
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Recent advances in wearable sensors and portable electronics for sleep monitoring.

TL;DR: This report reviews the advances in wearable sensors, miniaturized electronics, and system packaging for home sleep monitoring and provides a comprehensive view of newly developed technologies and broad insights on wearable sensors and portable electronics toward advanced sleep monitoring as well as at-home sleep assessment.
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Ultrahigh Conductivity and Superior Interfacial Adhesion of a Nanostructured, Photonic-Sintered Copper Membrane for Printed Flexible Hybrid Electronics.

TL;DR: Enhanced adhesion of the inkjet-printed copper (Cu) on a flexible polyimide film is achieved by using a new surface modification technique, a nanostructured self-assembled monolayer (SAM) of (3-mercaptopropyl)trimethoxysilane, which enables ultrahigh conductivity of printed Cu, which is the highest electrical conductivity reported to date.