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The Static Baryon Potential

Using state of the art lattice techniques we investigate the static baryon potential. We employ the multi-hit procedure for the time links and a variational approach to determine the ground state with sufficient accuracy that, for distances up to $\sim 1.2$ fm, we can distinguish the $Y$- and $\Delt...

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Detalles Bibliográficos
Autores principales: Alexandrou, C., de Forcrand, P., Tsapalis, A.
Lenguaje:eng
Publicado: 2001
Materias:
Acceso en línea:https://dx.doi.org/10.1016/S0920-5632(02)01407-X
http://cds.cern.ch/record/526829
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author Alexandrou, C.
de Forcrand, P.
Tsapalis, A.
author_facet Alexandrou, C.
de Forcrand, P.
Tsapalis, A.
author_sort Alexandrou, C.
collection CERN
description Using state of the art lattice techniques we investigate the static baryon potential. We employ the multi-hit procedure for the time links and a variational approach to determine the ground state with sufficient accuracy that, for distances up to $\sim 1.2$ fm, we can distinguish the $Y$- and $\Delta$- Ans\"atze for the baryonic Wilson area law. Our analysis shows that the $\Delta$-Ansatz is favoured. This result is also supported by the gauge-invariant nucleon wave function which we measure for the first time.
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institution Organización Europea para la Investigación Nuclear
language eng
publishDate 2001
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spelling cern-5268292023-03-14T18:46:57Zdoi:10.1016/S0920-5632(02)01407-Xhttp://cds.cern.ch/record/526829engAlexandrou, C.de Forcrand, P.Tsapalis, A.The Static Baryon PotentialNuclear Physics - TheoryUsing state of the art lattice techniques we investigate the static baryon potential. We employ the multi-hit procedure for the time links and a variational approach to determine the ground state with sufficient accuracy that, for distances up to $\sim 1.2$ fm, we can distinguish the $Y$- and $\Delta$- Ans\"atze for the baryonic Wilson area law. Our analysis shows that the $\Delta$-Ansatz is favoured. This result is also supported by the gauge-invariant nucleon wave function which we measure for the first time.Using state of the art lattice techniques we investigate the static baryon potential. We employ the multi-hit procedure for the time links and a variational approach to determine the ground state with sufficient accuracy that, for distances up to $\sim 1.2$ fm, we can distinguish the $Y$- and $\Delta$- Ans\atze for the baryonic Wilson area law. Our analysis shows that the $\Delta$-Ansatz is favoured. This result is also supported by the gauge-invariant nucleon wave function which we measure for the first time.Using state of the art lattice techniques we investigate the static baryon potential. We employ the multi-hit procedure for the time links and a variational approach to determine the ground state with sufficient accuracy that, for distances up to $\sim 1.2$ fm, we can distinguish the $Y$- and $\Delta$- Ans\"atze for the baryonic Wilson area law. Our analysis shows that the $\Delta$-Ansatz is favoured. This result is also supported by the gauge-invariant nucleon wave function which we measure for the first time.nucl-th/0111046CERN-TH-2001-317CERN-TH-2001-317oai:cds.cern.ch:5268292001-11-15
spellingShingle Nuclear Physics - Theory
Alexandrou, C.
de Forcrand, P.
Tsapalis, A.
The Static Baryon Potential
title The Static Baryon Potential
title_full The Static Baryon Potential
title_fullStr The Static Baryon Potential
title_full_unstemmed The Static Baryon Potential
title_short The Static Baryon Potential
title_sort static baryon potential
topic Nuclear Physics - Theory
url https://dx.doi.org/10.1016/S0920-5632(02)01407-X
http://cds.cern.ch/record/526829
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