On equilibrium intensive thermodynamic properties of composed p-particles in many-body systems

Equilibrium intensive thermodynamic properties of p-particles (p-ons), i.e., composed particles formed by few particles of the same nature such as fermion or boson pairs (p = 2), trios (p = 3), etc., are investigated. The relation of the p-particle correlation functions to its p-hole counterparts an...

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Autor principal: Bochicchio, Roberto Carlos
Publicado: 2001
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Acceso en línea:https://bibliotecadigital.exactas.uba.ar/collection/paper/document/paper_00207608_v85_n2_p63_Bochicchio
http://hdl.handle.net/20.500.12110/paper_00207608_v85_n2_p63_Bochicchio
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spelling paper:paper_00207608_v85_n2_p63_Bochicchio2023-06-08T14:41:44Z On equilibrium intensive thermodynamic properties of composed p-particles in many-body systems Bochicchio, Roberto Carlos Correlation functions P-particle distributions Propagators Quantum statistics Composition Correlation methods Fermions Particle size analysis Quantum theory Structure (composition) Thermodynamic properties Chemical potential Equilibrium intensive thermodynamic properties Many body systems Particle distributions Quantum statistics Particles (particulate matter) Equilibrium intensive thermodynamic properties of p-particles (p-ons), i.e., composed particles formed by few particles of the same nature such as fermion or boson pairs (p = 2), trios (p = 3), etc., are investigated. The relation of the p-particle correlation functions to its p-hole counterparts and an existing covariant structure in the hierarchy of the p-particle correlation functions allow these generalized intensive properties to be properly defined and characterized. The connection between these generalized properties of the composed objects and those of the components is also derived. An explicit derivation of the chemical potential for pairs and its generalization to p-particles is performed. Such results are further extended to any intensive property. Finally, the present development allows some previous results to be clearly interpreted thus yielding an important support for our theory. Fil:Bochicchio, R.C. Universidad de Buenos Aires. Facultad de Ciencias Exactas y Naturales; Argentina. 2001 https://bibliotecadigital.exactas.uba.ar/collection/paper/document/paper_00207608_v85_n2_p63_Bochicchio http://hdl.handle.net/20.500.12110/paper_00207608_v85_n2_p63_Bochicchio
institution Universidad de Buenos Aires
institution_str I-28
repository_str R-134
collection Biblioteca Digital - Facultad de Ciencias Exactas y Naturales (UBA)
topic Correlation functions
P-particle distributions
Propagators
Quantum statistics
Composition
Correlation methods
Fermions
Particle size analysis
Quantum theory
Structure (composition)
Thermodynamic properties
Chemical potential
Equilibrium intensive thermodynamic properties
Many body systems
Particle distributions
Quantum statistics
Particles (particulate matter)
spellingShingle Correlation functions
P-particle distributions
Propagators
Quantum statistics
Composition
Correlation methods
Fermions
Particle size analysis
Quantum theory
Structure (composition)
Thermodynamic properties
Chemical potential
Equilibrium intensive thermodynamic properties
Many body systems
Particle distributions
Quantum statistics
Particles (particulate matter)
Bochicchio, Roberto Carlos
On equilibrium intensive thermodynamic properties of composed p-particles in many-body systems
topic_facet Correlation functions
P-particle distributions
Propagators
Quantum statistics
Composition
Correlation methods
Fermions
Particle size analysis
Quantum theory
Structure (composition)
Thermodynamic properties
Chemical potential
Equilibrium intensive thermodynamic properties
Many body systems
Particle distributions
Quantum statistics
Particles (particulate matter)
description Equilibrium intensive thermodynamic properties of p-particles (p-ons), i.e., composed particles formed by few particles of the same nature such as fermion or boson pairs (p = 2), trios (p = 3), etc., are investigated. The relation of the p-particle correlation functions to its p-hole counterparts and an existing covariant structure in the hierarchy of the p-particle correlation functions allow these generalized intensive properties to be properly defined and characterized. The connection between these generalized properties of the composed objects and those of the components is also derived. An explicit derivation of the chemical potential for pairs and its generalization to p-particles is performed. Such results are further extended to any intensive property. Finally, the present development allows some previous results to be clearly interpreted thus yielding an important support for our theory.
author Bochicchio, Roberto Carlos
author_facet Bochicchio, Roberto Carlos
author_sort Bochicchio, Roberto Carlos
title On equilibrium intensive thermodynamic properties of composed p-particles in many-body systems
title_short On equilibrium intensive thermodynamic properties of composed p-particles in many-body systems
title_full On equilibrium intensive thermodynamic properties of composed p-particles in many-body systems
title_fullStr On equilibrium intensive thermodynamic properties of composed p-particles in many-body systems
title_full_unstemmed On equilibrium intensive thermodynamic properties of composed p-particles in many-body systems
title_sort on equilibrium intensive thermodynamic properties of composed p-particles in many-body systems
publishDate 2001
url https://bibliotecadigital.exactas.uba.ar/collection/paper/document/paper_00207608_v85_n2_p63_Bochicchio
http://hdl.handle.net/20.500.12110/paper_00207608_v85_n2_p63_Bochicchio
work_keys_str_mv AT bochicchiorobertocarlos onequilibriumintensivethermodynamicpropertiesofcomposedpparticlesinmanybodysystems
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