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<p>My primary research interest lies in the emergent phenomena of strongly correlated quantum systems.
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<p>I am broadly interested in the physics of quantum materials, with a focus on emergent phenomena in strongly correlated and topological systems. I am particularly fascinated by how microscopic interactions can give rise to unconventional phases of matter, non-trivial topology, and protected excitations such as Majorana modes.</p>
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<p>During my Master’s research with Dr. Ashis K. Nandy (NISER), I study superconducting hybrid systems and the interplay between unconventional superconductivity and engineered magnetic textures. My current work explores the superconducting diode effect and prospects for field-free diode devices, combining analytical modeling with numerical simulations. I investigate how tuning magnetic textures can enhance diode efficiency.</p>
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<p>Looking ahead to my PhD, I aim to expand this foundation toward topological quantum matter and non-equilibrium many-body dynamics. I am interested in theoretically exploring driven and dissipative topological systems, transport signatures of topological order, and routes toward fault-tolerant topological quantum computation grounded in non-Abelian quasiparticles.</p>
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<!-- <p>My primary research interest lies in the emergent phenomena of strongly correlated quantum systems.
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I am fascinated by how fundamental interactions at the microscopic level give rise to exotic macroscopic properties,
<p>For my PhD, I plan to expand my focus to address questions in topological quantum physics and many-body dynamics which includes,
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studying the behavior of topological systems far from equilibrium and
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simulating transport phenomena in quantum materials to identify experimental signatures of topological order and potential applications in quantum computing.</p>
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simulating transport phenomena in quantum materials to identify experimental signatures of topological order and potential applications in quantum computing.</p> -->
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