Dr. Navneet Kumar Pruthi: He is working in the area of Experimental High Energy Physics. He is a member of internationally known STAR Collaboration, U.S.A. His research is dedicated to analyzing relativistic heavy ion collisions to study the Quark
Gluon Plasma (QGP)which is a state of matter at extreme conditions of temperature/pressure and supposed to have existed a few milliseconds after the Big Bang. He is also a part of Collaborative Research project entitled “Indian Participation in ALICE Experiment at CERN” sanctioned jointly by Department of Science and Technology and Department of Atomic Energy, Govt. Of India. He has collaborative publications in reputed international journals like Nature, Physical Review C, Physics Letters B, Physical Review Letters, Physical Review D, European Physical Journal etc. He is currently guiding two Ph.D. students.
Dr. Karan Singh Vinayak: He has done research in simulation and in particular analysis of nuclear reactions (in intermediate energy range). His skills and techniques are mainly focused on the extraction of reaction output through theoretical simulations and in certain cases the numerical and computational techniques provide results which are compared to experimental data. Being a theoretician, he is engaged in data analysis and Programming in FORTRAN. His skills also involve carrying out simulations using software’s (operating systems), like, Scientific Linux, Ubuntu, Fedora and Red Hat etc. Presently, he has a research scholar enrolled with him in collaboration with HRI (Prayagraj) and working on the simulation through (W2K) a density functional based code to extract the (Physical, electrical etc.) properties of new alloys. He is looking for further collaborations in experimental domain.
Dr. Monika Bansal: Her field of interest is experimental and phenomenological studies of particle physics. She has worked in experimental particle physics with the CMS experiment at CERN, Geneva. Here, she led the measurements related to the Drell-Yan process with proton-proton collision data. She has been involved in the phenomenological studies to improve on the methods for the experimental measurements. Currently, she is a part of an International Collaboration ATHENA experiment at Electron-Ion Collider, BNL, USA. Her research work is published in International journals such as PRL, PRD, JHEP, JINST.
Dr. Paras Agrawal: He is doing research in Experimental Condensed Matter Physics, Nanoparticles and Nanofilms. He also works in the field of educational research. He has authored two books. He has twenty research publications in journals that include
International journal of Hydrogen Energy, Applied Nanoscience, AIP, IOP etc. 
 

Dr. Ruchika Yadav: She has worked as a post-doctoral fellow at PSI, PSI Villigen, Switzerland (2016-17) and at various synchrotron and neutron facilities in Europe. Her research interest is centered around the properties of strongly correlated electron system (SCES). These materials show novel properties due to competing degrees of freedom: Charge, Spin, Orbit and Lattice. Ground State is because of balance between these degrees of freedom and can be disturbed easily by external field/parameters giving rise to exciting novel phenomenon. Her areas of interest include different kinds of magnetic materials from simple ferromagnets and antiferromagnets, systems with complex, frustrated magnetism, incommensurate magnetic structures, and low dimensional magnets. Her field of interest also involves heavy fermions (with non-magnetic, magnetic or superconducting ground states), fluctuating or intermediate valence systems and Kondo lattices. She is also interested in multifunctional materials, oxides materials showing multiferroic behavior, magnetic field induced changes in structure, charge ordering, stripe phases and spin Peierls transitions etc. She has papers in journals like JPCM, Nature Scientific Reports, Physical Review B, Physical Review Letters. 
Dr. Yogyata Pathania: Her area of specialization is Computational Condensed Matter Physics. Her research interests include the application of statistical mechanics methods in condensed matter physics and molecular dynamics simulations of the critical
phenomenon of single component systems and binary systems. She is also interested in applications and developments within the frameworks of density functional theory (DFT). She is currently focussing on nanomaterials for biosensing and water desalination
applications. Her recent publications are in Wiley and Elsevier journals. 

Dr. Mumtaz Oswal: Her areas of research are experimental accelerator-based atomic physics, Inner shell ionization by heavy ions, and their applications for example PIXE, PIGE, EDXRF etc. Presently she is working on X-ray production cross-section measurements using heavy ion beams at Inter University Accelerator centre and Trace element analysis of environmental samples using PIXE, PIGE, and EDXRF. Her recent publications are in Physica Scripta, Nuclear Instruments and Methods in Physics Research Section B, Radiation Physics and Chemistry and Physical Review A. She has guided one Ph.D Student.
Dr. Deepak Garg: In classical fluid mechanics, turbulent drag on cars, ships, planes present a fundamental problem and is of enormous practical importance. For a viscous fluid the flow is described by the Navier-Stokes (N-S) equation usually with no-slip
condition at the boundary. For small flow velocities (Low Reynolds number), the N-S equation, can be linearized, leading to laminar flow, with drag proportional to the flow velocity. For higher velocities the nonlinear term in the N-S equation leads to an
instability and transition to turbulent flow, e.g., as a turbulent wake behind a moving object. The turbulence is characterized by length scales up to approximately the size of the object. The drag at high velocities is dominated by Bernoulli (pressure) forces and
becomes independent of the viscosity with a constant drag coefficient of order unity. Because turbulence is a complex, far from-equilibrium, nonlinear process, turbulent flow behind a moving object or past an obstacle is still not fully understood and its study
remains a subject of intensive research. Another fundamental problem relates to how this classical picture must be modified for superfluid He-4. Below λ-point (2.17K), behaviour 2 of liquid helium-4 is mainly described by Landau’s two-fluid model with coexisting normal (viscous) and superfluid (inviscid) components, complicating the fluid dynamics. Well below 1K, the normal fluid is almost absent, and we are left with a “pure” superfluid. Its properties are dominated by a coherent field associated with Bose condensation. The superfluid can undergo perfect potential flow, with complete slip at a solid boundary. Rotational flow can arise only in the form of quantized vortex lines: topological defects along which the amplitude of the coherent particle field vanishes and around which there is one quantum (h/m4, with h being Plank’s constant and m4 being mass of one helium atom) of circulation. In the absence of vortex lines, a superfluid is like an ideal fluid in which only potential flow is allowed and flow past an obstacle generates no drag force. So, a vibrating wire, or sphere, in the superfluid should not experience any damping, although its effective mass will be enhanced. In practice, however, there is probably a small drag, even for low velocities, and it is found on tuning- fork and mesh-grid experiments that a large drag almost always sets in as the velocity rises above a few mm/s. This large drag behaves in many respects like that in a classical fluid at high Reynolds number: e.g., at high velocities the drag coefficient tends towards a constant of order unity. It is generally believed that such departures from ideal-fluid turbulence (QT). His present research interests aim to fill this gap in understanding, to a useful extent, by undertaking new types of experiments designed to provide answers to specific questions related to the nucleation and growth of QT. Like classical turbulence, QT involves complex non-linear processes under far-from-equilibrium conditions, but with important and potentially illuminating differences arising from the quantization and the absence of viscous dissipation. Thus, studies of turbulence still command widespread attention. He
has papers in journals like Physical Review B, Journal of low temperature physics, Physics of Fluids etc. He currently has one student enrolled with him for Ph.D. program.