I am a Research Scientist at the Department of Physics at Yale University, working with Prof. Jack Harris in the field of optomechanics.
I started as a post-doc with Jack in August 2018. With graduate students Lucy Yu and Sean Frazier, I built an experiment to create non-classical states of massive objects (ug-mg mass) and am working toward entangling a couple of them. This work builds on the versatile optomechanical system realized by Jack with Anya Kashnakova and Alexey Shkarin — the massive object is a cylindrical chunk of superfluid Helium-4 bounded by optical and acoustic mirrors.
In September 2019, I joined forces with graduate students Judith Höeller, Parker Henry, and Chitres Guria to measure the topological structures of degeneracies that emerge in open systems (a coincidental segue to my PhD work, see below). Using 100-year-old theorems in Mathematics, we empirically demonstrated a generic topology of 3-level open systems using a ‘membrane-in-the-middle’ optomechanical platform. This work builds on the serendipitous findings of Haitan Xu, David Mason, Luyao Jiang, and the interim torchbearer Nenad Kralj.
In June 2021, I further teamed with graduate student Yiqi Wang and started working on levitating Helium drops to study optomechanics in new regimes. We also built experiments to levitate water drops, probing them with the toolset of optomechanics to shine light on unusual phases of water.
Previously
I was a Physics PhD (‘18) student at Cornell University working in the three labs of Prof. Mukund Vengalattore. My research focused on the study of open quantum systems — quantum systems that interact with their environment. Details
Even more previously
I hold a B.Tech. (2011) (equiv. to BS or BA) in Engineering Physics, with Honors, from the Department of Physics, IIT Bombay, as also a minor in Mathematics from the Department of Mathematics, IIT, Bombay.
Talks
J6.00005 A hybrid quantum interface between a mechanical resonator and an ultracold spin ensemble
on Wednesday, 2:48 PM, Room 311-312
P5.00001 Quench dynamics of a spinor condensate with strong spin-dependent interactions
on Thursday, 2:00 PM, Room 310
P6.00001 A driven dissipative phase transition in an ultracold lattice gas
also on Thursday, 2:00 PM, Room 311-312
Posters
Wednesday Session, 4:00 PM
K1.00039 Demonstration of the Kibble-Zurek mechanism in a non-equilibrium phase transition
K1.00055 Influence of system-bath interactions on driven-dissipative phase transitions
K1.00056 The Kibble-Zurek mechanism in phase transitions of non-equilibrium systems
K1.00117 Quantum many-body control beyond the adiabatic regime
Thursday Session, 4:00 PM
Q1.00111 Spin-mediated optomechanics: A hybrid quantum system for quantum sensing and transduction
Q1.00112 A novel nanophotonic platform for optomechanics in the strong coupling regime
C4.6 Realization of a cryogenic interface to an ultracold atomic chamber
C6.2 Measurement-induced control using a nondestructive quantum gas microscope
D1.94 Nonlinear phonon interferometry at the Heisenberg limit
G9.1 Lattice dynamics in Bosonic $^7$Li
J6.2 Universality of nonthermal behavior in spinor Bose condensates
K1.135 Universal nonequilibrium physics with spinor Bose condensates in the strongly coupled regime
P3.3 Nonlinear optomechanics with graphene
P5.5 Transport of a lattice gas under continuous measurement
Q1.85 Hybrid quantum systems with ultracold spins and optomechanics
Q1.96 Nonequilibrium quantum dynamics in optomechanical systems
Q1.107 Lattice gas dynamics under continuous measurement
Q1.125 Measurement-induced control with a nondestructive quantum gas microscope
