In recent years, the exploration of quantum non-equilibrium has emerged as a central focus of scientific research, marking the beginning of a new era in quantum technology and theoretical physics. Understanding these systems presents a formidable challenge, as quantum states exist within an exponentially vast space, far beyond the storage capacities of classical computers. Even when a quantum system begins in a simple state, it typically evolves rapidly into an exponentially complex one through fascinating processes like quantum information scrambling, entanglement, and randomization. The study of these dynamics is now a key topic in quantum physics, bridging technological challenges related to quantum computing with profound investigations into black holes and their intrinsic quantum fluctuations.
As quantum materials and devices transition from theoretical constructs to practical applications, mastering the dynamics of many-body quantum systems in non-equilibrium states becomes essential.
These systems, characterized by strong interactions and deep quantum effects, are crucial for advancing fields such as quantum computing, encryption, and communication technologies.
Our project is committed to developing state-of-the-art theoretical tools and computational techniques to better simulate and understand these complex systems under non-standard conditions.
Our goals include crafting efficient theoretical models to uncover new non-equilibrium phases in quantum systems, investigating how quantum information persists or dissipates over time, and explaining how classical-like behaviors can emerge from quantum dynamics on a macroscopic scale.
Specifically, we explore questions such as: What is a quantum shock wave? How are entanglement and quantum scrambling related to fluid turbulence and entropy production in non-linear systems? How can quantum information be disentangled into classical fluctuations and true quantum effects?
By providing a detailed examination of non-equilibrium phenomena that spans both quantum and classical physics, we aim to deepen our understanding of systems operating outside of equilibrium. The insights and tools developed through this project have the potential to transform our understanding of quantum mechanics and classical dynamics profoundly. This could lead to innovative computational strategies and the discovery of new states of matter. Ultimately, the theoretical advances we make are poised to revolutionize the management of quantum information, with significant implications for the future of quantum computing and communications. This is not just a step forward in science—it’s a leap toward our quantum future.
