Associate Professor in NanoPhysics

He collaborates in the field of research, linking physics, chemistry, optical engineering, and electronics. His research interests revolve around Nanomaterials and their multi-scale modelling to study the optical and electronic device properties of nanoparticles, for example, graphene, carbon nanotubes, and other fullerenes. This is done through the application of modelling and verification to discover the structural, molecular properties, and environmental effects on transport, such as interactions, chemical catalysis, electrochemical gates, optical effects, and temperature gradients for energy and electricity harvesting via the thermoelectric effect and optical-electronic sensing effect using density functional theory, tight-binding model, molecular dynamics, and quantum transport in theoretical and mathematical physics and computational simulation physics.