Inorganic, Nanoscale and Materials Chemistry
Our research involves synthesis and characterization of nanoscale inorganic solids and their hybrids with functional bio/organic materials. Nanometer scale inorganic solids exhibit fascinating properties that are different from their bulk counterparts. Their properties can be tailored by controlling their sizes, shapes, and surface functionalities as well as their compositions. Furthermore, when they are organized into ordered superstructures, new sets of optical and electrical properties can be created. Many of these properties introduce challenging scientific questions and also provide much opportunity for innovation in a variety of technologies ranging from quantum computing to biosensors.
Our goal is to understand how the structure of individual particles and their spatial organization affect these physical properties and use that knowledge to design new materials with useful properties. To achieve this, we use concepts and tools from several different disciplines. We adopt self-assembly principles in biology to control nanoparticle growth and their assembly structure. We use a variety of spectroscopic and structural characterization techniques including single molecule spectroscopy and scanning probe microscopy to develop detailed understanding on their structure-property relationship. We are particularly interested in 1) colloidal metal/semiconductor heterostructures for bioanalysis applications, 2) organization of inorganic nanostructures in lipid supramolecular assemblies, and 3) controlling energy carriers in nanostructured materials, interfaces, and devices.
- B.S. Ewha Women's University (1994)
- M.S. Ewha Women's University (1996)
- Research Scientist, Korea Institute of Science and Technology
- Ph.D. Northwestern University (2002)
- Postdoctoral fellow, University of Texas, Austin