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The high-frequency finite-temperature quark dispersion relation

I calculate the dispersion relation for quarks of mass $m$ and momentum $k$ in a quark gluon plasma at temperature $T$, in the limit $m^2+k^2 \gg (gT)^2$, where $g$ is the strong coupling constant. I find three contributions to the dispersion relation: one that depends on $T$ but not $m$ or $k$, one...

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Autor principal: Seibert, David
Lenguaje:eng
Publicado: 1993
Materias:
Acceso en línea:http://cds.cern.ch/record/254162
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author Seibert, David
author_facet Seibert, David
author_sort Seibert, David
collection CERN
description I calculate the dispersion relation for quarks of mass $m$ and momentum $k$ in a quark gluon plasma at temperature $T$, in the limit $m^2+k^2 \gg (gT)^2$, where $g$ is the strong coupling constant. I find three contributions to the dispersion relation: one that depends on $T$ but not $m$ or $k$, one that depends on $m$ and $T$ but not $k$, and third contribution that depends on all three (and is opposite in sign to the other two).
id cern-254162
institution Organización Europea para la Investigación Nuclear
language eng
publishDate 1993
record_format invenio
spelling cern-2541622020-07-23T02:48:06Zhttp://cds.cern.ch/record/254162engSeibert, DavidThe high-frequency finite-temperature quark dispersion relationParticle Physics - TheoryI calculate the dispersion relation for quarks of mass $m$ and momentum $k$ in a quark gluon plasma at temperature $T$, in the limit $m^2+k^2 \gg (gT)^2$, where $g$ is the strong coupling constant. I find three contributions to the dispersion relation: one that depends on $T$ but not $m$ or $k$, one that depends on $m$ and $T$ but not $k$, and third contribution that depends on all three (and is opposite in sign to the other two).I calculate the dispersion relation for quarks of mass $m$ and momentum $k$ in a quark gluon plasma at temperature $T$, in the limit $m~2+k~2 \gg (gT)~2$, where $g$ is the strong coupling constant. I find three contributions to the dispersion relation: one that depends on $T$ but not $m$ or $k$, one that depends on $m$ and $T$ but not $k$, and third contribution that depends on all three (and is opposite in sign to the other two).nucl-th/9310008CERN-TH-7034-93CERN-TH-7034-93oai:cds.cern.ch:2541621993
spellingShingle Particle Physics - Theory
Seibert, David
The high-frequency finite-temperature quark dispersion relation
title The high-frequency finite-temperature quark dispersion relation
title_full The high-frequency finite-temperature quark dispersion relation
title_fullStr The high-frequency finite-temperature quark dispersion relation
title_full_unstemmed The high-frequency finite-temperature quark dispersion relation
title_short The high-frequency finite-temperature quark dispersion relation
title_sort high-frequency finite-temperature quark dispersion relation
topic Particle Physics - Theory
url http://cds.cern.ch/record/254162
work_keys_str_mv AT seibertdavid thehighfrequencyfinitetemperaturequarkdispersionrelation
AT seibertdavid highfrequencyfinitetemperaturequarkdispersionrelation