Controlling the structure of matter at the nanoscale opens exciting opportunities for manipulating the properties of materials with great flexibility and precision. While nanoscale structures made from semiconductors show unique and potentially useful size- and shape-dependent properties due to quantum confinement, metal nanostructures can efficiently confine light into nanoscale volumes due to generation of surface plasmon polaritons. Combining the useful properties of these materials can have important implications for absorption and emission of electromagnetic radiation for solar cells, artificial light sources, and other applications. Moreover, careful understanding of electronic structure in these hybrid nanoscale systems can also enable new physical processes for photosensitized catalytic or photovoltaic charge extraction.
My research focuses on development of novel material systems and processes for development of functional nanomaterials. Our studies are focused on advancement of fundamental knowledge of electronic structures, carrier dynamics, and interactions between incident electromagnetic radiation and these nanoscale materials.
CHEN 3010 - Applied Data Analysis
Fall 2018 / Fall 2019
Teaches students to analyze and interpret data. Topics include engineering measurements, graphical presentation and numerical treatment of data, statistical inference, and regression analysis.
CHEN 4521 - Physical Chemistry for Engineers
Examines the laws of classical thermodynamics followed by physical transformations of pure substances, the thermodynamics of simple mixtures and chemical equilibrium. Applies quantum theory to atomic and molecular structure. Presents the concepts and applications of statistical thermodynamics. Introduces rates of chemical reactions, reaction dynamics and catalysis.