I am a scientist studying the physics of materials, as a postdoctoral scholar at Harvard University. My research is focused on materials that exhibit quantum mechanical phenomena over a wide range of energy and length scales. I use light as a means of unraveling their complex phenomenology and manipulating their behavior.

Research highlights

Magnetism when combined with topological materials can give rise to new electronic phases – if they interact with each other. Here, we study a material where magnetism coexists with topological bands, and quantify the exchange coupling between the two.

Magnetism in topological materials creates a platform to realize spin-based phenomena with applications in spintronics, memory, and quantum information. Here, we discover a new knob to control interlayer magnetic bonding in an antiferromagnetic topological insulator – phonons.

Featured on Phys.org, and Materials Today, and Penn State News.

Polar metals are materials that simultaneously demonstrate polar order and metallicity, two seemingly incompatible properties. In this work, we outline the mechanism that may stabilize such a state, and observe experimental signatures of this using optical spectroscopy.

Multiferroic materials with simultaneous ferroelectric and magnetic order offer the prospect of electric-field control of magnetism. Our new symmetry-based approach helps us identify hidden magnetoelectric switching pathways in BiFeO3, clarifying its deterministic nature.

Graphene with a vacancy defect is a unique system that is magnetic even in the absence of magnetic ions. Here, we use first-principles calculations to show that this magnetism is intertwined with local structural deformations, with non-planarity quenching the magnetic moment.