Research
Research Areas
Iridates: A playground for spin-orbit coupling (SOC) and correlation (U) driven quantum phenomena:
Can we observe unconventional superconductivity in iridates?
The importance of iridium charge state in stabilizing the spin-orbit-coupled Jeff states in iridates.
Exploring the possibility of new interesting quantum phenomena, emerging from the competitive or/and combined effects of SOC and U.
Magnetic nanostructures: Candidates for large magnetic anisotropy energy (MAE):
Developing a seamless software framework that ties state of-the-art first-principles techniques to an integrated modeling suite for nanomagnetic correlated materials, with the aim of understanding physics, materials science and chemistry of magnetic nanosystems.
Identifying new systems with an optimal balance of microscopic parameters, and new operating mechanisms for spintronic devices.
Electronic and Magnetic Properties of Transition metal compounds: Towards a fully ab-initio many body framework
Exploring the possibilities of electronic, magnetic transition and novel ground states.
Computation of correlations strength and describing real materials within a fully ab-initio many-body approach.
Research Facilities
Computing Cluster
Well Equipped Lab
DFT Based Software
Other Software