The interaction between a quantum system and its environment drives rich phenomena including dissipation, decoherence, thermalization, and non-Markovian memory effects. Understanding and controlling these effects is central to robust quantum technologies and quantum thermodynamic tasks.
Our research combines rigorous theory with computational methods to model realistic dynamics beyond idealized isolated systems. We investigate both perturbative and non-perturbative regimes, with emphasis on practical diagnostics and simulation strategies relevant to current quantum hardware.
Physical Review Research
We present a theoretical framework for a quantized memristive Leaky Integrate-and-Fire (LIF) neuron, uniting principles from neuromorphic engineering and open quantum systems. Starting from a classical memristive LIF cir…
View publicationarXiv preprint arXiv:2602.03534
Open Quantum Brownian Motion (OQBM) was introduced as a scaling limit of discrete-time open quantum walks. This limit defines a new class of quantum Brownian motion, which incorporates both the external and internal degr…
View publicationNew Journal of Physics
Collision models (CMs) describe an open system interacting in sequence with elements of an environment, termed ancillas. They have been established as a useful tool for analyzing non-Markovian open quantum dynamics based…
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