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High-Quality Microprintable and Stretchable Conductors for High- Performance 5G Wireless Communication

Title
High-Quality Microprintable and Stretchable Conductors for High- Performance 5G Wireless Communication
Author(s)
Kim, JongyounKim, MinkyoungJung, HyeonwooPark, JaehyoungJun, Byoung OkKang, ByeongjaeJang, Jae EunLee, Youngu
Issued Date
2022-11
Citation
ACS Applied Materials & Interfaces, v.14, no.47, pp.53250 - 53260
Type
Article
Author Keywords
stretchable conductormicroprintingsilvermicropattern5G communication antenna
Keywords
INKFABRICATIONELECTRODESADHESIONGRAPHENELINES
ISSN
1944-8244
Abstract
With the advent of 5G wireless and Internet of Things technologies, flexible and stretchable printed circuit boards (PCBs) should be designed to address all the specifications necessary to receive signal transmissions, maintaining the signal integrity, and providing electrical connections. Here, we propose a silver nanoparticle (AgNP)/silver nanowire (AgNW) hybrid conductor and high-quality microprinting technology for fabricating flexible and stretchable PCBs in high-performance 5G wireless communication. A simple and low-cost reverse offset printing technique using a commercial adhesive hand-roller was adapted to ensure high-resolution and excellent pattern quality. The AgNP/ AgNW micropatterns were fabricated in various line widths, from 5 mu m to 5 mm. They exhibited excellent pattern qualities, such as fine line spacing, clear edge definition and outstanding pattern uniformity. After annealing via intense pulsed light irradiation, they showed outstanding electrical resistivity (15.7 mu omega cm). Moreover, they could withstand stretching up to a strain of 90% with a small change in resistance. As a demonstration of their practical application, the AgNP/AgNW micropatterns were used to fabricate 5G communication antennas that exhibited excellent wireless signal processing at operating frequencies in the C-band (4-8 GHz). Finally, a wearable sensor fabricated with these AgNP/ AgNW micropatterns could successfully detected fine finger movements in real time with excellent sensitivity. © 2022 American Chemical Society.
URI
http://hdl.handle.net/20.500.11750/17323
DOI
10.1021/acsami.2c18424
Publisher
American Chemical Society
Related Researcher
  • 장재은 Jang, Jae Eun
  • Research Interests Nanoelectroinc device; 생체 신호 센싱 시스템 및 생체 모방 디바이스; 나노 통신 디바이스
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Appears in Collections:
Department of Electrical Engineering and Computer Science Advanced Electronic Devices Research Group(AEDRG) - Jang Lab. 1. Journal Articles
Department of Energy Science and Engineering Organic & Printed Electronics Laboratory(OPEL) 1. Journal Articles

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