We present a novel quantum Monte Carlo method based on a path integral in Fock space, which allows the computation of finite-temperature properties of a many-body nuclear system with a monopole pairing interaction in the canonical ensemble. It enables an exact calculation of the thermodynamic variables such as the internal energy, the entropy, or the specific heat, from the measured moments of the number of hops in a path of nuclear configurations. Monte Carlo calculations for a single-shell (h11/2)^6 model are consistent with an exact calculation from the many-body spectrum in the seniority model
We introduce a new class of quantum Monte Carlo methods, based on a Gaussian quantum operator repres...
The shell model provides a powerful framework for nuclear structure calculations. The nucleons beyon...
The Bardeen-Cooper-Schrieffer (BCS) mean-field theory of the pairing interaction breaks down for nuc...
We present a novel quantum Monte Carlo method based on a path integral in Fock space, which allows t...
We present a novel quantum Monte Carlo method based on a path integral in Fock space, which allows t...
We use quantum Monte Carlo methods in the framework of the interacting nuclear shell model to calcul...
We present in detail a formulation of the shell model as a path integral and Monte Carlo techniques ...
A detailed description is provided of a new Worm Algorithm, enabling the accurate computation of the...
A quantum Monte Carlo approach is applied to the treatment of the pairing force in nuclear systems. ...
We present novel Monte Carlo methods for treating the interacting shell model that allow exact calcu...
The work presented in this thesis is based on the Feynman path integral formalism for quantum statis...
We review results obtained using Shell-Model Monte Carlo (SMMC) techniques. These methods reduce the...
A detailed description is provided of a new worm algorithm, enabling the accurate computation of the...
The quantum Monte Carlo method for spin- 1 2 fermions at finite temperature is formulated for dilute...
We describe the computational ingredients for an approach to treat interacting fermion systems with ...
We introduce a new class of quantum Monte Carlo methods, based on a Gaussian quantum operator repres...
The shell model provides a powerful framework for nuclear structure calculations. The nucleons beyon...
The Bardeen-Cooper-Schrieffer (BCS) mean-field theory of the pairing interaction breaks down for nuc...
We present a novel quantum Monte Carlo method based on a path integral in Fock space, which allows t...
We present a novel quantum Monte Carlo method based on a path integral in Fock space, which allows t...
We use quantum Monte Carlo methods in the framework of the interacting nuclear shell model to calcul...
We present in detail a formulation of the shell model as a path integral and Monte Carlo techniques ...
A detailed description is provided of a new Worm Algorithm, enabling the accurate computation of the...
A quantum Monte Carlo approach is applied to the treatment of the pairing force in nuclear systems. ...
We present novel Monte Carlo methods for treating the interacting shell model that allow exact calcu...
The work presented in this thesis is based on the Feynman path integral formalism for quantum statis...
We review results obtained using Shell-Model Monte Carlo (SMMC) techniques. These methods reduce the...
A detailed description is provided of a new worm algorithm, enabling the accurate computation of the...
The quantum Monte Carlo method for spin- 1 2 fermions at finite temperature is formulated for dilute...
We describe the computational ingredients for an approach to treat interacting fermion systems with ...
We introduce a new class of quantum Monte Carlo methods, based on a Gaussian quantum operator repres...
The shell model provides a powerful framework for nuclear structure calculations. The nucleons beyon...
The Bardeen-Cooper-Schrieffer (BCS) mean-field theory of the pairing interaction breaks down for nuc...