​​​​​​​​​​​​​My field of research is to investigate strongly correlated electron systems using neutron scattering and muon spin resonance techniques. The field of strongly correlated electron systems is an active area in condensed matter physics research recently and in spite of a huge amount of experimental and theoretical work, the magnetic properties of solids are by no means completely understood. My research is focused on the materials which are important to understand the fundamental physics as well as the development of new future thermoelectric device technology. I am currently working on heavy fermion systems, new FeAs-based high temperature superconductors (HTSC), transition mental oxides, thermoelectric materials, low dimensional magnetism and magnetic-nanoparticles. The main focus on heavy fermion and FeAs-based-SC/HTSC is to understand commonality between these different systems, which may lead to a common origin of superconductivity, and to investigate the role of quantum fluctuations on the origin of unconventional superconductivity and break down of standard Fermi-liquid theory in these materials. Many heavy fermion systems exhibit a huge value of thermoelectric power, which is important for thermoelectric device. On transition metal oxides systems the main focus is to probe low dimensional magnetic fluctuations using inelastic neutron scattering and muon spin rotation and directly to test various theoretical models. Currently I am working on Kondo insulators, FeAs-based double layered superconductors and spin-chain and spin ladder systems.