Research is focused on multi-scale computational materials science, atomistic simulations of functional nano-/biomaterials, coarse-grained simulations of composite microstructures, nanoscale thermal transport, advanced thermal fluids, electrochemical energy storage, water purification and desalination, nano/biomechanics, colloid and surface chemistry, and interfacial phenomena.
She is setting up a state-of-the-art thin film growth and characterization laboratory at the High Magnetic Field Laboratory, exploiting the many interactions in complex oxides to find new ways to control their properties using external perturbations (such as strain, electric fields and optical excitation).
Dr. Huang's major research interest focuses on developing advanced theoretical methods to solve challenging electronic and kinetic problems in materials. "A reliable understanding of electronic and kinetic properties in materials is essential for the success of the computer-aided rational design of materials."
Exciting new work by a Florida State University research team has led to a novel molecular system that can take your temperature, emit white light, and convert photon energy directly to mechanical motions.