足球竞彩app排名

科学研究

打造高水平科技创新平台和一流科研团队!

MENU

学术活动

材料学院7月3日学术讲座预告

供稿: 韩登宝 编辑: 材料学院 赵汗青 时间:2015-07-02

报告题目:Stretchable Polymer Electronics
时  间:2015年7月3日下午2:30
地  点:5号教学楼502-1

报告人简介:
Qibing Pei is Professor of Materials Science and Engineering at UCLA. He specializes in synthetic polymers and composites for electronic, electromechanical, and photonic applications, with over 140 peer-reviewed journal publications and 40 awarded US patents. His current research activities include conjugated polymer synthesis, flexible and stretchable polymer electronics, nanostructured composites, and soft actuators. He received a B.S. degree in chemistry from Nanjing University, China, and a PhD in polymer science from the Institute of Chemistry, Chinese Academy of Science, Beijing. He was a postdoctoral scientist in Linköping University, Sweden, senior chemist at UNIAX Corporation (now DuPont Display), Santa Barbara, California, and senior research engineer at SRI International, Menlo Park, California. He has been on the UCLA faculty since 2004. He is a Fellow of the SPIE, member of the American Chemical Society, Materials Research Society, Associate Editor of Smart Materials and Structures, Soft Robotics, and serves on the Advisory Board of Advanced Electronic Materials and International Journal of Smart and Nano Materials.

报告摘要:
Intrinsically stretchable electronics entails the electrode, semiconductor, and dielectric materials all being deformable, and that a suitable deposition, patterning, and overlaying protocols are developed for the soft materials. I will present the development of a new transparent conductor with high surface conductivity and low surface roughness. The mechanical properties of the transparent electrode are determined by the polymer substrate employed, and demonstrated properties include flexibility, shape memory, self-healing, and rubbery deformation. The new electrode has been used to replace ITO/glass in fabricating organic light emitting diodes with significantly enhanced luminous efficiency. A series of highly stretchable electronic devices will also be presented.