The discovery of new physical phenomena, the modeling of unconventional systems, and the implementation of innovative approximations require the development of novel methods and the exploration of diverse theoretical frameworks. Our 'methods development' research focuses on creating such tools to investigate the electronic structure and dynamics of molecules, nanostructures, and materials. By combining quantum nonequilibrium Green’s functions, many-body perturbation theory, and stochastic techniques, we study ground and excited states, quasiparticle dynamics, charge and spin transport, and quantum control—all from first-principles perspectives.
We study the fundamental electronic properties of materials and nanostructures and their potential applications. This includes the investigation of their electronic structure, quasiparticle dynamics, and interactions with electromagnetic fields. We focus on developing strategies to control these properties and contrast our computations with experimental observations.