OVERVIEW

  • Our vision revolves around several platforms for highly  effective systems  with a nature inspired approach, an interfacial assembly and combination for multi-functional systems and, large-area processing. 

  •  Structured stimuli responsive nano architectures include particular nano/micro patterns, structural interlocking, and molecular level assembly.   

  • The programmable nano-architectures are investigated with understanding of detail physics and interactions in nature for bio-integrative, and energy, environmental applications.

  • We intend to focus on multiplex and flexible devices for tools  of intelligent bioelectronics and medical devices interfaced with artificial intelligence.   

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NANO PROCESSING & MULTISCALE SURFACE ARCHITECTURES 

BIO-INSPIRED INTELLIGENT BIOELECTRONICS & E-SKIN 

ENERGY HARVESTING MATERIALS & DEVICES 

E-COMPOSITE MATERIALS for SMART TEXTRONICS 

 LATEST NEWS 



연구명: "A Highly Drainable, Capillary-enhanced, Organ-attachable Adhesive with Octopusinspired 3-dimensional Architectures"

우리 연구실 소속 백상열 학생(석박통합과정, 9기)이 2019 The 1st International Conference on Nature Inspired Surface Engineering (NISE 2019) 에서 Best Poster Award을 수상하였다. 백상열 학생은 문어의 빨판을 모사한 Adhesive Patch 관련 프로젝트를 진행하며 Nature紙를 포함 다수의 국제학술지에 논문을 출판하였으며, 해당 주제를 바탕으로 지난 6월 뉴저지에서 개최된 NISE 2019의 Poster Session에 참여한 바 있다.





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




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)



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