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**Harvard**

Djärv, T. (2016) *Three-Body Forces in Configuration-Interaction Methods for Nuclear Physics*. Göteborg : Chalmers University of Technology

** BibTeX **

@mastersthesis{

Djärv2016,

author={Djärv, Tor},

title={Three-Body Forces in Configuration-Interaction Methods for Nuclear Physics},

abstract={In this thesis, three-body forces are studied and implemented in a quantum manybody
configuration-interaction method. The general importance of three-body forces
in physics is discussed, providing some classical examples, before focusing in particular
on their appearance in modern nuclear physics. The theoretical formalism
that is needed for the implementation of three-body forces in quantum many-body
systems is presented, with the angular-momentum coupling of two- and three-body
systems of identical particles as main focus point. The resulting software, that is
written in C, is then utilized to compute the ground-state energy of the tritium (3H)
and helion (3He) nuclei in finite model spaces (Nmax 8). Results are compared
with other simulations and the difference is within an acceptable tolerance. A few
suggestions for future optimization of the code, such as the utilization of hash maps,
are discussed.},

publisher={Institutionen för fysik (Chalmers), Chalmers tekniska högskola},

place={Göteborg},

year={2016},

note={48},

}

** RefWorks **

RT Generic

SR Electronic

ID 247323

A1 Djärv, Tor

T1 Three-Body Forces in Configuration-Interaction Methods for Nuclear Physics

YR 2016

AB In this thesis, three-body forces are studied and implemented in a quantum manybody
configuration-interaction method. The general importance of three-body forces
in physics is discussed, providing some classical examples, before focusing in particular
on their appearance in modern nuclear physics. The theoretical formalism
that is needed for the implementation of three-body forces in quantum many-body
systems is presented, with the angular-momentum coupling of two- and three-body
systems of identical particles as main focus point. The resulting software, that is
written in C, is then utilized to compute the ground-state energy of the tritium (3H)
and helion (3He) nuclei in finite model spaces (Nmax 8). Results are compared
with other simulations and the difference is within an acceptable tolerance. A few
suggestions for future optimization of the code, such as the utilization of hash maps,
are discussed.

PB Institutionen för fysik (Chalmers), Chalmers tekniska högskola,

LA eng

LK http://publications.lib.chalmers.se/records/fulltext/247323/247323.pdf

OL 30