Welcome  to  SSPL

    The Solid State Physics Laboratory (SSPL) of Department of Physical Sciences (DPS), IISER Kolkata has a goal to carryout research on solid state materials science with state-of-art facilities. The broad areas of research are namely laboratory and synchrotron based high-resolution angle-resolved and angle-integrated photoemission spectroscopy of strongly correlated systems, synthesis of new materials and understanding its crystal structure, magnetic & electronic properties, synthesis of novel doped nano-materials and understanding its optical, magnetic, and electronic properties. SSPL is also involved in theoretical calculations / research for  understanding the above experimental results. Theoretical calculations like Full-potential LAPW and ab-initio pseudopotential band structure calculations are carried out with the high-performance cluster and workstation available in institute.

Information for Winter Intern Applicants

We have opening for Winter Internship 2025 [Last date of Application: 31 / 10 / 2025] in both Theory and Experiments. Go through the above research tab for details: Write me back if interested.  raj@iiserkol.ac.in

Theoretical Condensed Matter Physics :  Electronic, Optical, and Magnetic structure of 2D and 3D-strongly correlated systems by Density Functional Theory approach.

Experimental Condensed Matter Physics :
(i) Electronic and Magnetic structure by synchrotron based X-ray Photoemission spectroscopy (Angle-resolved, Angle-integrated).
(ii) Electronic, Optical, Magnetic, and Transport properties of strongly correlated systems and novel nanomatrials.

Research  Highlights

Our research focuses on exploring and controlling the topological and quantum properties of advanced materials. In particular, we study how chemical doping, structural modifications, and dimensional confinement can influence electronic behavior, enabling transitions between different quantum phases. By combining state-of-the-art experimental techniques with first-principles electronic structure calculations, we gain deep insights into how doping affects crystal symmetry, surface states, and electronic topology. Our goal is to uncover fundamental mechanisms that govern exotic quantum phenomena and to provide a foundation for designing materials with tunable electronic, optical, and magnetic functionalities for next-generation quantum devices.