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Network Model: Action formulation

We develop a technique to formulate quantum field theory on arbitrary network, based on different, randomly disposed sets of scattering's. We define R-matrix of the whole network as a product of R-matrices attached to each of scattering nods. Then an action for a network in terms of fermionic f...

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Detalles Bibliográficos
Autores principales: Khachatryan, Sh., Sedrakyan, A., Sorba, P.
Lenguaje:eng
Publicado: 2009
Materias:
Acceso en línea:https://dx.doi.org/10.1016/j.nuclphysb.2009.09.033
http://cds.cern.ch/record/1198032
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author Khachatryan, Sh.
Sedrakyan, A.
Sorba, P.
author_facet Khachatryan, Sh.
Sedrakyan, A.
Sorba, P.
author_sort Khachatryan, Sh.
collection CERN
description We develop a technique to formulate quantum field theory on arbitrary network, based on different, randomly disposed sets of scattering's. We define R-matrix of the whole network as a product of R-matrices attached to each of scattering nods. Then an action for a network in terms of fermionic fields is formulated, which allows to calculate the transition amplitudes as their Green functions. On so-called bubble and triangle diagrams it is shown that the method produces the same results as the one which uses the generalized star product. The approach allows to extend network models by including multiparticle interactions at the scattering nods.
id cern-1198032
institution Organización Europea para la Investigación Nuclear
language eng
publishDate 2009
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spelling cern-11980322023-03-14T16:46:17Zdoi:10.1016/j.nuclphysb.2009.09.033http://cds.cern.ch/record/1198032engKhachatryan, Sh.Sedrakyan, A.Sorba, P.Network Model: Action formulationCondensed MatterWe develop a technique to formulate quantum field theory on arbitrary network, based on different, randomly disposed sets of scattering's. We define R-matrix of the whole network as a product of R-matrices attached to each of scattering nods. Then an action for a network in terms of fermionic fields is formulated, which allows to calculate the transition amplitudes as their Green functions. On so-called bubble and triangle diagrams it is shown that the method produces the same results as the one which uses the generalized star product. The approach allows to extend network models by including multiparticle interactions at the scattering nods.We develop a technique to formulate quantum field theory on an arbitrary network, based on different randomly disposed sets of scattering points. We define the R -matrix of the whole network as a product of R -matrices attached to each scattering node. Then an action is formulated for a network in terms of fermionic fields, which allows to calculate the transition amplitudes as Green functions. On so-called bubble and triangle diagrams it is shown that the method produces the same results as the one which uses the generalized star product. The approach allows to extend network models by including multiparticle interactions at the scattering nodes.We develop a technique to formulate quantum field theory on arbitrary network, based on different, randomly disposed sets of scattering's. We define R-matrix of the whole network as a product of R-matrices attached to each of scattering nods. Then an action for a network in terms of fermionic fields is formulated, which allows to calculate the transition amplitudes as their Green functions. On so-called bubble and triangle diagrams it is shown that the method produces the same results as the one which uses the generalized star product. The approach allows to extend network models by including multiparticle interactions at the scattering nods.arXiv:0904.2688LAPTH-1324-09CERN-PH-TH-2009-041CERN-PH-TH-2009-041oai:cds.cern.ch:11980322009-08-06
spellingShingle Condensed Matter
Khachatryan, Sh.
Sedrakyan, A.
Sorba, P.
Network Model: Action formulation
title Network Model: Action formulation
title_full Network Model: Action formulation
title_fullStr Network Model: Action formulation
title_full_unstemmed Network Model: Action formulation
title_short Network Model: Action formulation
title_sort network model: action formulation
topic Condensed Matter
url https://dx.doi.org/10.1016/j.nuclphysb.2009.09.033
http://cds.cern.ch/record/1198032
work_keys_str_mv AT khachatryansh networkmodelactionformulation
AT sedrakyana networkmodelactionformulation
AT sorbap networkmodelactionformulation