C02

Hybrid Approaches to Quantum Many-Body Systems

The main goal of this project is to combine different methodologies effectively, leveraging their strengths against weaknesses. By integrating hybrid stochastic techniques with machine learning, multidimensional Tensor Networks, and the Iterative Configuration Expansion from quantum chemistry, our long term goal is to create a powerful approach to challenging quantum many-body systems. The objective is to unlock investigations of currently inaccessible quantum many-body systems at finite chemical potential, particularly focusing on QCD at finite baryon density and models for high-Tc superconductors.

David Luitz
David Luitz
Professor of Theoretical Physics
Thomas Luu
Thomas Luu
Professor of Theoretical Physics
Frank Neese
Frank Neese
Professor of Theoretical Chemistry
Carsten Urbach
Carsten Urbach
Professor of Theoretical Physics

My research focuses on Computational Physics, and in particular Lattice QCD, Lattice Field Theories, algorithm development and statistical data analysis. This naturally includes high performance computing.