Research Area: PHYS-02/A - Fisica Teorica delle Interazioni Fondamentali, Modelli, Metodi Matematici e Applicazioni
Research activities
My research activity is focused on the theoretical understanding of the role played by strong interactions in low-dimensional quantum many-body systems, such as spin chains or Hubbard-like models. In this context I am investigating some peculiar aspects of quantum matter (including phase transitions, magnetism, and non-equilibrium dynamics), which can be experimentally accessed by means of quantum simulators. Among the available platforms, I am dealing with cold atoms trapped in optical lattices and with coupled-cavity quantum electrodynamics (QED). I also work on the development numerical methods for strongly correlated systems, in particular the density matrix renormalization group (DMRG) and tensor networks.
Recent publications
- Controlled flow of excitations in a ring-shaped network of Rydberg atoms [2023]
- Entanglement dynamics with string measurement operators [2023]
- Entanglement transitions and quantum bifurcations under continuous long-range monitoring [2023]
- Quantum algorithms for the computation of quantum thermal averages at work [2023]
- Critical crossover phenomena driven by symmetry-breaking defects at quantum transitions [2022]