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OVERVIEW

  • 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. 

 

  • Super-intelligent polymer 3D-architectures include  hierarchical nano/micro patterning via unconventonal lithography, 2/3/4D-printing, nanostructural assembly, and molecular level chemical treatments.   

  • Diverse super-intelligent programmable polymer 3D-architectures are investigated through understanding detailed physical and chemical phenomena and finite element analysis simulations.

  • 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.

이미지 제공: Sue Thomas
이미지 제공: USGS
이미지 제공: Serena Repice Lentini
이미지 제공: Zdeněk Macháček
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Super-intelligent polymer 3D-architectures for Bioinspired Soft Electronics and Bioelectronics

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Soft Poymer Robots, E-skin, & Metaverse Haptic Devices 

Biomedical Drug Delivery Devices & Energy Harvesting Devices

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바이오 소자 및 에너지 소자.tif
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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

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LATEST NEWS

Our paper “Kinetic Modeling of Temperature Dependence of TiCl4 and NH3 Surface Reaction in Trap Systems for CVD Reactors (I&ecr, Pang et al), ” was featured in VerticalNew of Engineering Business Journal (USA Presses).


http://www.verticalnews.com/premium_newsletters/Engineering-Business-Journal/2009-03-11/67512EBJ.html

Research from C. Pang and co-researchers in the area of chemical engineering published


"The chemical vapor deposition (CVD) of titanium nitride (TiN) thin film has been a widely adopted, process for the fabrication of diffusion barrier layers in microelectronic fabrication processes. TiCl4(NH3)(2) is known to be formed as a solid product in the downstream of the CVD chambers and causes damages to the pumping systems," researchers in South Korea report.

"To prevent such damage, trap systems are installed between the process chamber and pumps. This study focuses on the flow, temperature, and reaction kinetic modeling of the chemical fort-nation of TiCl4(NH3)(2) in the trap system by computational fluid dynamics (CFD)," wrote C. Pang and...


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