Quantum Simulation Group

How do complex quantum systems behave when many particles interact? How do new forms of matter emerge from these interactions, and how can we understand and control their properties?

Our research group explores these questions at the intersection of quantum physics, computational science, and quantum technologies. We study how collections of quantum particles behave, interact, and evolve, with a particular focus on phenomena that cannot be understood by considering individual particles alone.

A central part of our research is quantum simulation: using carefully controlled quantum systems, such as ultracold atoms and molecules, to investigate fundamental physical phenomena that are difficult to study in conventional materials. These systems provide a unique opportunity to explore exotic states of matter, quantum correlations, and the emergence of collective behavior.

We are particularly interested in quantum many-body dynamics, including how quantum systems evolve away from equilibrium, how they transport energy and information, and how interactions can lead to unexpected phenomena. We also investigate open quantum systems, where interactions with the surrounding environment can fundamentally change a system's behavior, sometimes producing entirely new physical effects.

Alongside these fundamental questions, we develop advanced computational methods to simulate quantum systems beyond the reach of conventional theoretical approaches. By combining numerical algorithms, high-performance computing, and machine learning, we aim to make increasingly complex quantum phenomena accessible to theoretical investigation.

Our ultimate goal is to bridge fundamental theory, computational methods, and experiments, contributing to a deeper understanding of quantum matter and opening new possibilities for future quantum technologies.