Postdoctoral Researcher San Jose State Univ/ UC Davis
PhD in Physics, Rice University
Projects
Here you can find more information about the different projects I am working on
Interacting fermions with SU(N) symmetry
Team Leader  PhD project
What do insulation, magnetism and superconductivity have in common? All of these diverse and interesting properties of materials arise from the behavior of electrons in a lattice.
I seek to understand this behavior by stripping the system down to its very simple form named the Hubbard model, which accurately describes ultracold atomic systems that serve as quantum simulators of macroscopic materials.
Learn more about the projects

Universal thermodynamics of an SU(N) FermiHubbard model

Observation of antiferromagnetic correlations in an ultracold SU(N) Hubbard model

Thermodynamics and magnetism in the 2D to 3D crossover of the Hubbard model
Learn more about the algorithm and analysis code

Determinant Quantum Monte Carlo  How we do the physics

Data cleaning  How we read the output and format it for easier manipulation

Analysis and plotting  How we analyze data and generate figures
Fermi Hubbard Optical Tweezer
Team Member
Although optical lattices have been of enormous use to simulate condensed matter systems, they are restricted to simple geometries such as squares.
In contrast, recent lattices formed by optical tweezer have the ability to not only construct a wide variety of geometries, but also have singlesite control capabilities.
I seek to numerical simulate the dynamics of atoms trapped in such tweezers, which are stroboscopically turned on and off while experiments are performed. The dynamics encode information such as the heating rate of the atoms in the lattice, which is relevant for experiments.
Learn more about the numerical techniques

Discrete Variable Representations (DVR)  How we diagonalize the matrices

Time evolution  How we simulate the dynamics of the system

Analysis and plotting  How we analyze data and generate figures
Loop observables and classical Monte Carlo
Undergraduate Research Advisor
Eventhough classical models do not suffer from the consequences of anticommutation and commutation relationships, computing the partition function and correlation functions is not a trivial task.
For this purpose, we employ classical Monte Carlo techniques to study lattice models. One of the most studied ones is the Ising model, which has an analytical solution in two dimensions, but not in three.
We study generalizations of the Ising model in 3D with different lattice geometries and couplings. For this, we do not limit ourselves to npoint correlators, but loop observables, which depend on their topology, i.e. whether they are continuously shrinkable to a point, or nonshrinkable. Some if these models have an analytic solution for complex values of the coupling constants, and the existence of phases where these loop observables are quantized at fractional values. We aim to determine if similar phases can be found for all coupling constants that are all real.
Learn more about the numerical techniques and analysis code

Classical Monte Carlo  How we perform the simulation

Loop observables  What quantities we compute and how they depend on length.

Analysis and plotting  How we analyze data and generate figures