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Physical states in canonically quantized supergravity

We discuss the canonical quantization of $N=1$ supergravity in the functional Schrodinger representation. Although the form of the supersymmetry constraints suggests that there are solutions of definite order $n$ in the fermion fields, we show that there are no such states for any finite $n$. For $n...

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Autores principales: Carroll, Sean M., Freedman, Daniel Z., Ortiz, Miguel E., Page, Don N.
Lenguaje:eng
Publicado: 1994
Materias:
Acceso en línea:https://dx.doi.org/10.1016/0550-3213(94)90148-1
http://cds.cern.ch/record/258180
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author Carroll, Sean M.
Freedman, Daniel Z.
Ortiz, Miguel E.
Page, Don N.
author_facet Carroll, Sean M.
Freedman, Daniel Z.
Ortiz, Miguel E.
Page, Don N.
author_sort Carroll, Sean M.
collection CERN
description We discuss the canonical quantization of $N=1$ supergravity in the functional Schrodinger representation. Although the form of the supersymmetry constraints suggests that there are solutions of definite order $n$ in the fermion fields, we show that there are no such states for any finite $n$. For $n=0$, a simple scaling argument definitively excludes the purely bosonic states discussed by D'Eath. For $n>0$, the argument is based on a mode expansion of the gravitino field on the quantization 3-surface. It is thus suggested that physical states in supergravity have infinite Grassmann number. This is confirmed for the free spin-3/2 field, for which we find that states satisfying the gauge constraints contain an infinite product of fermion mode operators.
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institution Organización Europea para la Investigación Nuclear
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publishDate 1994
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spelling cern-2581802023-03-14T18:59:26Zdoi:10.1016/0550-3213(94)90148-1http://cds.cern.ch/record/258180engCarroll, Sean M.Freedman, Daniel Z.Ortiz, Miguel E.Page, Don N.Physical states in canonically quantized supergravityGeneral Theoretical PhysicsWe discuss the canonical quantization of $N=1$ supergravity in the functional Schrodinger representation. Although the form of the supersymmetry constraints suggests that there are solutions of definite order $n$ in the fermion fields, we show that there are no such states for any finite $n$. For $n=0$, a simple scaling argument definitively excludes the purely bosonic states discussed by D'Eath. For $n>0$, the argument is based on a mode expansion of the gravitino field on the quantization 3-surface. It is thus suggested that physical states in supergravity have infinite Grassmann number. This is confirmed for the free spin-3/2 field, for which we find that states satisfying the gauge constraints contain an infinite product of fermion mode operators.We discuss the canonical quantization of $N=1$ supergravity in the functional Schrodinger representation. Although the form of the supersymmetry constraints suggests that there are solutions of definite order $n$ in the fermion fields, we show that there are no such states for any finite $n$. For $n=0$, a simple scaling argument definitively excludes the purely bosonic states discussed by D'Eath. For $n>0$, the argument is based on a mode expansion of the gravitino field on the quantization 3-surface. It is thus suggested that physical states in supergravity have infinite Grassmann number. This is confirmed for the free spin-3/2 field, for which we find that states satisfying the gauge constraints contain an infinite product of fermion mode operators.We discuss the canonical quantization of N =1 supergravity in the functional Schrödinger representation. Although the form of the supersymmetry constraints suggests that there are solutions of definite order n in the fermion fields, we show that there are no such states for any finite n . For n =0, a simple scaling argument definitively excludes the purely bosonic states discussed by D'Eath. For n >0, the argument is based on a mode expansion of the gravitino field on the quantization 3-surface. It is thus suggested that physical states in supergravity have infinite Grassmann number. This is confirmed for the free spin-3/2 field, for which we find that states satisfying the gauge constraints contain an infinite product of fermion mode operators.hep-th/9401155MIT-CTP-2279CTP-2279MIT-CTP-2279oai:cds.cern.ch:2581801994-01-28
spellingShingle General Theoretical Physics
Carroll, Sean M.
Freedman, Daniel Z.
Ortiz, Miguel E.
Page, Don N.
Physical states in canonically quantized supergravity
title Physical states in canonically quantized supergravity
title_full Physical states in canonically quantized supergravity
title_fullStr Physical states in canonically quantized supergravity
title_full_unstemmed Physical states in canonically quantized supergravity
title_short Physical states in canonically quantized supergravity
title_sort physical states in canonically quantized supergravity
topic General Theoretical Physics
url https://dx.doi.org/10.1016/0550-3213(94)90148-1
http://cds.cern.ch/record/258180
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