The astrophysics group is performing research that plays an essential role in understanding the observed activity of our Sun and different stars, the existence of Earth-like planets outside the solar system, and the evolution and fate of the Universe.

Current research in this area focuses on the following topics: Routes to chaos in systems with many degrees of freedom, fractal techniques and their applications to data analysis, analytical methods for solving nonlinear differential equations, and quantum and classical descriptions of chaotic systems

The experimental condensed matter group is performing research at the forefront of a number of areas of emerging technological importance, with major efforts in: Surface characterization, scanning, auger microscopy, positron-solid interactions, thin films, magnetic multilayers, scanning electron microscopy with polarization analysis (SEMPA), electronic and optical properties of advanced materials, microwave studies in superconductors and magnetic materials, and nanostructured magnetic materials

The high energy physics group is dedicated to fundamental research at the highest energy scales through participation in experiments at the world´s most advanced accelerators (D∅ at Fermilab and ATLAS at CERN).

The nano-bio physics group is performing research Nanoparticle based therapeutics for cancer treatment, nanoparticle based dosimetry, water soluble nanoparticles for In vivo oxygen (hypoxia) measurement in tumor, X-ray computed radiography improvement by quantum size confinement, multifunctional nanoparticles for medical imaging and detection, and cataract studies.

The significant increase of applications of advanced materials has created a great demand for deliberate exploration to nanostructured magnetic materials. Our group is currently working on hard and soft magnets spanning all four dimensions - nanoparticles (0D), nanorods and nanowires (1D), thin films and multilayers (2D), and nanostructured bulk magnets (3D).

The focus of the space physics Research Group is mainly on the plasma phenomena in the terrestrial environments, including magnetosphere-ionosphere coupling, ionospheric plasma outflow, auroral energization, charged particle acceleration, and wave propagation. Our research involves numerical simulation, satellite in-situ observation, and radio remote sensing.

Current research in this area focuses on the following topics: Many body theory, Feynman-Kac path integral formalism, molecular dynamics, surface physics. massively parallel computing, transport theory, and electronic structure theory of clusters, films and solids.