The mission of nanophotonics research is to scale optical devices and components to their ultimate size limits. This usually involves designing near-field optical interactions that guide electromagnetic energy on a scale well below the diffraction limit. The group is currently involved in understanding the electro-optic properties of surface plasmon nanostructures using several numerical and experimental methods. The nanophotonics group also collaborates closely with material scientists (Dr. Knowlton, Hughes, Yurke) in exploring new sub-10 nm fabrication technique using single strand DNA as assembly scaffold.
Funding for this area of research is provided by NSF.
Luong, N., Wen Cheng, C., Shih, M. H., Kuang, W. (2010). Phase matching for surface plasmon enhanced second harmonic generation in a gold grating slab. Applied Physics Letters, 100, 181107.
English, A., Wen Cheng, C., Lowe II, L., Shih, M. H., Kuang, W. (2011). Hydrodynamic modeling of surface plasmon enhanced photon induced current in a gold grating. Applied Physics Letters, 191113.
Bui, H., Onodera, C., Kidwell, C., Tan, Y., Kuang, W., Lee, J., Knowlton, W. B., Yurke, B., Hughes, W. L. (2010). Programmable periodicity of quantum dot arrays with DNA origami nanotubes. Nano Letters 10, 3367-3372.
Find out more about Optical Devices and Nanophotonics.