Thursday, March 5, 2015

TOMORROW! SID Student Chapter Seminar: "Near Infrared-Light Directing Chiral Liquid Crystal Superstructures: From 1D to 3D" by Dr. Ling Wang 3.6.15/10:00-11:00am/ CREOL Rm 103

SID Student Chapter Seminar: "Near Infrared-Light Directing Chiral Liquid Crystal Superstructures: From 1D to 3D" by Dr. Ling Wang
Friday, March 6, 2015 10:00 AM to 11:00 AM
CREOL Room 103

Celebrating the International Year of Light 2015

Ling Wang
Liquid Crystal Institute, Kent State University

Abstract:
Endowing external, remote, and dynamic control to self-organized superstructures with tailored functionalities is a principal driving force in the bottom-up nanofabrication of molecular devices. Light-driven chiral molecular switches or motors in liquid crystal (LC) media capable of self-organizing into optically tunable one-dimensional (1D) and three dimensional (3D) superstructures represent such an elegant system. However, employing near infrared (NIR) light would be much more desirable than either ultraviolet or visible light in the fields such as life science, materials science, and aerospace due to its superior penetration and invisibility for temporal and spatial remote activation of materials with relatively low interference and high precision. In this talk, I will focus on our recent research and development on the NIR-responsive molecular switches and their applications for triggering chiral liquid crystal superstructures: from 1D to 3D.

Biography:
Ling Wang is currently a postdoctoral research associate in the group of Prof. Quan Li at the Liquid Crystal Institute from Kent State University. He received his Ph.D. in the Department of Materials Physics & Chemistry from University of Science and Technology Beijing (2013), and then he worked as a research associate in the Department of Materials Science & Engineering from Peking University. Together with his advisor Prof. Huai Yang. His research focuses on the synthesis, properties and applications of liquid crystal materials, stimuli-responsive molecular switches, and novel functional nanomaterials.  


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