Simulations of QCD with a finite chemical potential typically lead to a severe sign problem, prohibiting any standard Monte Carlo approach. Complex Langevin simulations provide an al-ternative to sample path integrals with oscillating weight factors and therefore potentially enable the determination of the phase diagram of QCD. Here we present results for QCD in the limit of heavy quarks and show evidence that the phase diagram can be mapped out by direct simulation. We apply adaptive step-size scaling and adaptive gauge cooling to ensure the convergence of these simulations. The 32nd International Symposium on Lattice Field Theor
We simulate lattice QCD at finite quark-number chemical potential to study nuclear matter, using the...
Numerical simulations are a standard tool to investigate field theories innon-perturbative regimes. ...
We first test the Complex Langevin method (CLE) on various simple models. We then introduce the meth...
Simulations of QCD with a finite chemical potential typically lead to a severe sign problem, prohibi...
Simulations of QCD with a finite chemical potential typically lead to a severe sign problem, prohibi...
The sign problem of QCD prevents standard lattice simulations to de-termine the phase diagram of str...
Complex Langevin simulations allow numerical studies of theories that exhibit a sign problem, such a...
Complex Langevin simulations allow numerical studies of theories that exhibit a sign problem, such a...
Complex Langevin simulations provide an alternative to sample path integrals with complex weights an...
Complex Langevin simulations have been able to successfully reproduce results from Monte Carlo metho...
The sign problem appears in lattice QCD as soon as a non-zero chemical potential is introduced. This...
We summarise recent progress in simulating QCD at nonzero baryon density using complex Langevin dyna...
In this review we present the current state-of-the-art on complex Langevin simulations and their imp...
We simulate lattice QCD at finite quark-number chemical potential to study nuclear matter, using the...
We simulate lattice QCD at finite quark-number chemical potential to study nuclear matter, using the...
We simulate lattice QCD at finite quark-number chemical potential to study nuclear matter, using the...
Numerical simulations are a standard tool to investigate field theories innon-perturbative regimes. ...
We first test the Complex Langevin method (CLE) on various simple models. We then introduce the meth...
Simulations of QCD with a finite chemical potential typically lead to a severe sign problem, prohibi...
Simulations of QCD with a finite chemical potential typically lead to a severe sign problem, prohibi...
The sign problem of QCD prevents standard lattice simulations to de-termine the phase diagram of str...
Complex Langevin simulations allow numerical studies of theories that exhibit a sign problem, such a...
Complex Langevin simulations allow numerical studies of theories that exhibit a sign problem, such a...
Complex Langevin simulations provide an alternative to sample path integrals with complex weights an...
Complex Langevin simulations have been able to successfully reproduce results from Monte Carlo metho...
The sign problem appears in lattice QCD as soon as a non-zero chemical potential is introduced. This...
We summarise recent progress in simulating QCD at nonzero baryon density using complex Langevin dyna...
In this review we present the current state-of-the-art on complex Langevin simulations and their imp...
We simulate lattice QCD at finite quark-number chemical potential to study nuclear matter, using the...
We simulate lattice QCD at finite quark-number chemical potential to study nuclear matter, using the...
We simulate lattice QCD at finite quark-number chemical potential to study nuclear matter, using the...
Numerical simulations are a standard tool to investigate field theories innon-perturbative regimes. ...
We first test the Complex Langevin method (CLE) on various simple models. We then introduce the meth...