Our group explores the frontier of condensed matter physics by investigating how many-body correlations, spin-orbit-charge coupling, and structural topology give rise to novel quantum phases.
We combine various computational and theoretical frameworks with experimental collaboration to design and understand the materials of the future.
Unconventional Superconductivity & Magnetism: Investigating the roles of spin and orbital fluctuations in the superconductivity and peculiar magnetisms in Ruthenates.
Mott-Hund’s Physics: Decoding the electronic origins of metal-insulator transitions and magnetic orders in 4d and 5d transition metal oxides (Osmates, Ruthenates).
Key Publications: Phys. Rev. Lett. (2023, 2020), Science (2023), Phys. Rev. B (2020,2022).
Dimensionality Control: Using epitaxial strain and superlattice engineering to stabilize metastable phases and "tune" the electronic landscape of quasi-2D oxide heterostructures .
Topological Phases: Exploring Weyl fermions and nodal-line semimetals in geometrically frustrated and magnetic systems.
Key Publications: Nature (2021), Nature Commun. (2022), Appl. Phys. Rev. (2025).
Beyond Conventional DFT: Development and applicationof advanced many-body techniques, including DFT+DMFT, GW, and cRPA .
Quantifying Interactions: Systematic calculation of Hubbard parameters using spectral methods to bridge the gap between first-principles theory and experimental reality .
Key Publications: Phys. Rev. B (2025, 2025,2018), npj Comput. Mater. (2024).
Next-Gen Battery Cathodes : Applying correlation physics in Li/Na-ion battery materials.
Polaron Dynamics: Exploring polaron physics in semiconductor and quantum materials.
2D systems: Dimensionally restricted electronic structures in 2D and quasi-2D systems.
Key Publications: Small (2022), Phys. Rev. Mater. (2021), PCCP (2023).