Prof. Changhyun Pang was awarded with Science and Technology of month by Korea Government (April, 2019).
성균관대 방창현 교수가 과학기술정보통신부가 주최하고 한국연구재단과 서울경제신문이 공동 주관하는 ‘이달의 과학기술인상’ (2019년 4월)을 수상했다.
see details -> https://www.sedaily.com/NewsView/1VHQ0VT5LC
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CHANG HYUN PANG RESEARCH GROUP
Welcome to SP3 Lab
Super-intelligent Polymer 3D-Architecture (SP3) Lab
for Bioinspired Soft Electronics, Robotics and Biomedical Devices
Super-지능형 고분자 3D 아키텍처 연구실
for 생체모사 고분자 전자소자, 로봇, 바이오메디컬 소자
OVERVIEW
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Our vision revolves around several platforms for super-intelligent polymer 3D-architectures with a nature/bio-inspired approach by combining with multi-functional materials and large-area processing.
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Super-intelligent polymer 3D-architectures include hierarchical nano/micro patterning via unconventonal lithography, 2/3/4D-printing, nanostructural assembly, and molecular level chemical treatments.
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Diverse super-intelligent programmable polymer 3D-architectures are investigated through understanding detailed physical and chemical phenomena and finite element analysis simulations.
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By tailoring ultra-intelligent polymer 3D architectures, we are focusing on developing highly efficient deformable electronics, physical/chemical sensors, and soft robots/actuators, metaverse haptic device interfaces, energy harvesting devices, and biomedical drug delivery devices.
Super-intelligent polymer 3D-architectures for Bioinspired Soft Electronics and Bioelectronics
Soft Poymer Robots, E-skin, & Metaverse Haptic Devices
Biomedical Drug Delivery Devices & Energy Harvesting Devices
NOTICE
[포스닥 & 대학원생 모집]
지능형 소재 및 인터페이스 연구실에서는 세계적인 연구를 함께 주도할
박사후 연구원 및 대학원생(등록금 전액, 생활비 지원, 해외학회 및 연수 지원)을 모집합니다.
연구분야: 지능형 반도체 전자 소재, 바이오 소재 및 소자, 메타버스 센서 및 부착 소재, 소프트 로봇 소재
LATEST NEWS
Biomimetics: Highly Permeable Skin Patch with Conductive Hierarchical Architectures Inspired by Amphibians and Octopi for Omnidirectionally Enhanced Wet Adhesion (Adv. Funct. Mater. 13/2019)
In article number 1807614, Changhyun Pang and co‐workers report highly air‐permeable, water‐drainable, and reusable skin patches with enhanced omnidirectional peel resistance and pulling adhesion, inspired by the toe pads of tree frogs and convex cups in the suckers of octopi. The patch can be utilized as flexible electrodes by coating reduced graphene oxides to monitor electrocardiography signals without delamination on skin in sweaty and even flowing water conditions.
Da Wan Kim†, Sangyul Baik†, Hyeongho Min, Sungwoo Chun, Heon Joon Lee, Ki Hyun Kim, Jun Young Lee, Changhyun Pang*
See the article: (https://onlinelibrary.wiley.com/toc/16163028/2019/29/13)
Da Wan Kim†, Sangyul Baik†, Hyeongho Min, Sungwoo Chun, Heon Joon Lee, Ki Hyun Kim, Jun Young Lee, and Changhyun Pang*
A team of scientists from Sungkyunkwan University have designed adhesives based on the mechanism underlying the unique multiscale architecture of tree frog toepads for effective omnidirectional adhesion against rough surfaces in various wet conditions.
To further enhance the adhesion capability of the skin patch on wet surfaces, they then incorporated a suction effect yielded by convex cups, inspired by the protuberance structures within octopus suckers.
Several analyses later, what they had was a novel, reversible adhesive skin patch with high air permeability and water drainage. The adhesive patches were then spray coated with reduced graphene oxide nanoplatelets to be used as flexible electrodes for biosignal monitoring without delamination against dynamic wet skins.
The authors believe that this this amphibian- and octopus-like adhesive could replace the conventional adhesives used in skin patches and wearable/implantable devices.
“Our results shed light on the development of in vitro and in vivo integrated medical devices for inner and outer organ applications.” they conclude.
See the article:https://www.advancedsciencenews.com/the-natural-solution-to-a-sticky-problem-wearable-skin-patches/
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