Modelling simple atoms and 87Rb in cavity-QED.

Computational study of quantum light-matter interaction in the Jaynes-Cummings (JC) model. All dynamics are computed from first principles using QuTiP, with no phenomenological approximations

Numerical implementation of diagrammatic scattering theory for few-photon transport through Bose-Hubbard lattices

A python package for the physics of 1D Fabry-Pérot cavities interacting with atoms.

Simulation of Photonic Condensates

This simulation demonstrates how a Fabry–Pérot cavity acts as a narrowband spectral filter for single-photon wavepackets. It includes frequency-domain and time-domain examples showing how an input photon spectrum is shaped by the cavity transfer function.

FGR (Jortner) theory for a cavity-assisted charge transfer process in a hybrid light-matter system.

This contains theoretic results important to get insight in the working of a qubit inside microwave cavity. We have made an analogy with coupled spring-mass system to understand the coupling of the qubit with the resonant cavity.

Using Fock states (Harmonic Oscillator eigenstates ) to quantize the cavity photon mode and using the Ehrenfest dynamics to accurately describe the population dynamics for coupled light-matter system

Research data for “Phaseless auxilliary-field Quantum Monte Carlo method for cavity-QED matter systems”.