author_facet Gilmore, R.
Gilmore, R.
author Gilmore, R.
spellingShingle Gilmore, R.
Journal of Mathematical Physics
Structural stability of the phase transition in Dicke-like models
Mathematical Physics
Statistical and Nonlinear Physics
author_sort gilmore, r.
spelling Gilmore, R. 0022-2488 1089-7658 AIP Publishing Mathematical Physics Statistical and Nonlinear Physics http://dx.doi.org/10.1063/1.523127 <jats:p>The free energy for a general class of Dicke models is computed and expressed simply as the minimum value of a potential function Φ = (E−TS)/N. The function E/N is the image of the Hamiltonian under the quantum–classical correspondence effected by the atomic and field coherent state representations, and the function S is the logarithm of an SU(2) multiplicity factor. The structural stability of the second order phase transition under changes in the functional form of the Hamiltonian is determined by searching for stability changeovers along the thermal critical branch of Φ. The necessary condition for the presence of a second order phase transition is completely determined by the canonical kernel of the Hamiltonian. The sufficient condition is that a first order phase transition not occur at higher temperature. The critical temperature for a second order phase transition is given by a gap equation of Hepp–Lieb type.</jats:p> Structural stability of the phase transition in Dicke-like models Journal of Mathematical Physics
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title Structural stability of the phase transition in Dicke-like models
title_unstemmed Structural stability of the phase transition in Dicke-like models
title_full Structural stability of the phase transition in Dicke-like models
title_fullStr Structural stability of the phase transition in Dicke-like models
title_full_unstemmed Structural stability of the phase transition in Dicke-like models
title_short Structural stability of the phase transition in Dicke-like models
title_sort structural stability of the phase transition in dicke-like models
topic Mathematical Physics
Statistical and Nonlinear Physics
url http://dx.doi.org/10.1063/1.523127
publishDate 1977
physical 17-22
description <jats:p>The free energy for a general class of Dicke models is computed and expressed simply as the minimum value of a potential function Φ = (E−TS)/N. The function E/N is the image of the Hamiltonian under the quantum–classical correspondence effected by the atomic and field coherent state representations, and the function S is the logarithm of an SU(2) multiplicity factor. The structural stability of the second order phase transition under changes in the functional form of the Hamiltonian is determined by searching for stability changeovers along the thermal critical branch of Φ. The necessary condition for the presence of a second order phase transition is completely determined by the canonical kernel of the Hamiltonian. The sufficient condition is that a first order phase transition not occur at higher temperature. The critical temperature for a second order phase transition is given by a gap equation of Hepp–Lieb type.</jats:p>
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description <jats:p>The free energy for a general class of Dicke models is computed and expressed simply as the minimum value of a potential function Φ = (E−TS)/N. The function E/N is the image of the Hamiltonian under the quantum–classical correspondence effected by the atomic and field coherent state representations, and the function S is the logarithm of an SU(2) multiplicity factor. The structural stability of the second order phase transition under changes in the functional form of the Hamiltonian is determined by searching for stability changeovers along the thermal critical branch of Φ. The necessary condition for the presence of a second order phase transition is completely determined by the canonical kernel of the Hamiltonian. The sufficient condition is that a first order phase transition not occur at higher temperature. The critical temperature for a second order phase transition is given by a gap equation of Hepp–Lieb type.</jats:p>
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imprint AIP Publishing, 1977
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spelling Gilmore, R. 0022-2488 1089-7658 AIP Publishing Mathematical Physics Statistical and Nonlinear Physics http://dx.doi.org/10.1063/1.523127 <jats:p>The free energy for a general class of Dicke models is computed and expressed simply as the minimum value of a potential function Φ = (E−TS)/N. The function E/N is the image of the Hamiltonian under the quantum–classical correspondence effected by the atomic and field coherent state representations, and the function S is the logarithm of an SU(2) multiplicity factor. The structural stability of the second order phase transition under changes in the functional form of the Hamiltonian is determined by searching for stability changeovers along the thermal critical branch of Φ. The necessary condition for the presence of a second order phase transition is completely determined by the canonical kernel of the Hamiltonian. The sufficient condition is that a first order phase transition not occur at higher temperature. The critical temperature for a second order phase transition is given by a gap equation of Hepp–Lieb type.</jats:p> Structural stability of the phase transition in Dicke-like models Journal of Mathematical Physics
spellingShingle Gilmore, R., Journal of Mathematical Physics, Structural stability of the phase transition in Dicke-like models, Mathematical Physics, Statistical and Nonlinear Physics
title Structural stability of the phase transition in Dicke-like models
title_full Structural stability of the phase transition in Dicke-like models
title_fullStr Structural stability of the phase transition in Dicke-like models
title_full_unstemmed Structural stability of the phase transition in Dicke-like models
title_short Structural stability of the phase transition in Dicke-like models
title_sort structural stability of the phase transition in dicke-like models
title_unstemmed Structural stability of the phase transition in Dicke-like models
topic Mathematical Physics, Statistical and Nonlinear Physics
url http://dx.doi.org/10.1063/1.523127