Yamamura Masatoshi | Department Of Pure And Applied Physics Faculty Of Engineering Science Kansai University

スポンサーリンク

概要

• 同名の論文著者
• Department Of Pure And Applied Physics Faculty Of Engineering Science Kansai Universityの論文著者

関連著者

• Yamamura Masatoshi

  Department Of Pure And Applied Physics Faculty Of Engineering Science Kansai University

• Yamamura Masatoshi

  Faculty Of Engineering Kansai University

• YAMAMURA Masatoshi

  Faculty of Engineering ,Kansai University

• Providencia Joao

  Departamento De Fisica Universidade De Coimbra

• Kuriyama Atsushi

  Faculty Of Engineering Kansai University

• Kuriyama A

  Faculty Of Engineering Kansai University

• YAMAMURA Masatoshi

  Faculty of Engineering, Kansai University

• Providencia Constanca

  Departamento De Fisica Universidade De Coimbra

• Constanca Providencia

  Departamento De Fisica Universidade De Coimbra

• Tsue Yasuhiko

  Physics Division Faculty Of Science Kochi University

• Providencia C

  Departmento De Fisica Universidade De Coimbra

• TSUE Yasuhiko

  Physics Division, Faculty of Science, Kochi University

• PROVIDENCIA Joao

  Departmento de Fisica, Universidade de Coimbra

• PROVIDENCIA Constanca

  Departament de Fisica, Universidade de Coimbra

• PROVIDENCIA Constanca

  Departmento de Fisica, Universidade de Coimbra

• Providencia C

  Univ. Coimbra Coimbra Prt

• YAMAMURA Masatoshi

  Depertment of Physics, Kyoto University

• PROVIDENCIA Joao

  Deparatmento de Fisica, Universidate de Coimbra

• KURIYAMA Atsushi

  Faculty of Engineering, Kansai University

• TSUE Yasuhiko

  Departamento de Fisica,Universidade de Coimbra

• PROVIDENCIA Joao

  Departamento de Fisica, Unversidade de Coimbra

• PROVIDENCIA Joao

  Departamento de Fisica,Universidade de Coimbra

• Tsue Yasuhiko

  Department Of Physics Kyoto University

• TSUE Yasuhiko

  Department of Physics, Kyoto University

• Tsue Y

  Physics Division Faculty Of Science Kochi University

• Da Providencia

  Departamento De Fisica Centro De Fisica Computacional Faculdade De Ciencias E Tecnologia Universidade De Coimbra

• YAMAMURA Masatoshi

  Department of Pure and Applied Physics, Faculty of Engineering Science, Kansai University

• Providencia Joao

  Departmento De Fisica Universidade De Coimbra

• KURIYAMA Atushi

  Faculty of Engineering, Kansai University

• YAMAMURA Masatoshi

  Department of Physics, Kyoto University : Faculty of Engineering, Kansai University

• KURIYAMA Atsushi

  Faculty of Engineering, Kansai Universidade

• KURIYAMA Atsushi

  Department of Physics, Kyusyu University

• KURIYAMA Atsushi

  Department of Physics, Kyushu University /Department of Physics, Kyoto University

• KURIYAMA Atushi

  Department of Physics, Kyushu University

• PROVIDENCIA Constanca

  Dpartamento de Fisica, Universidade de Coimbra

• PROVIDENCIA Constancia

  Departmento de Fisica, Universidade de Coimbra

• TSUE Yasuhiro

  Department of Physics, Kochi University

• PROVIDENCIA Joao

  Dpartamento de Fisica, Universidade de Coimbra

• PROVIDENCIA Joao

  Departament de Fisica, Universidade de Coimbra

• PROVIDENCIA Joao

  Department of Fisica, Universidade de Coimbra

• Yamamura Masatoshi

  Department Of Physics Kyoto University

• Da Providencia

  Universidade De Coimbra Coimbra Prt

• PROVIDENCIA Constanga

  Departamento de Fisica, Universidade de Coimbra

• Da Providencia

  Departamento De Fisica Universidade De Coimbra

• Iida S

  Kyoto Univ.

• IIDA Shinji

  Department of Physics, Kyoto University

• Iida Shinji

  Department Of Physics Kyoto University

• Iida S

  Institute For Nuclear Study University Of Tokyo

• Joao Da

  Departamento De Fisica Universidade De Coimbra

• da PROVIDENCIA

  Departamento de Fisica, Universidade de Coimbra

• NISHIYAMA Seiya

  Physics Division, Faculty of Science, Kochi University

• Nishiyama Seiya

  Physics Division Faculty Of Science Kochi University

• PROVIDENCIA Constanca

  Departamento de Fisica, Universidade de Coimbra

• KUNIHIRO Teiji

  Faculty of Natural Science, Ryukoku University

• Kunihiro T

  Yukawa Institute For Theoretical Physics Kyoto University:(present Office)department Of Physics Kyot

• TSUE Masahiko

  Physics Division, Faculty of Science, Kochi University

• Tamiya Kyuichiro

  Department Of Physics Kyoto University

• Kunihiro Teiji

  Faculty Of Natural Science Ryukoku University

• Tsue Masahiko

  Physics Division Faculty Of Science Kochi University

• da Providencia

  Faculty of Engineering, Kansai University

• PROVIDENCIA Joao

  Departamento de Fisica, Universidade de Coimbra

• TSUE Yasuhiko

  Department of Material Science, Kochi University

• Azuma Nobuyuki

  Department Of Cardiology St. Marianna University School Of Medicine

• Azuma Nobuyuki

  Department Of Aerospace Engineering Nagoya University

• Azuma Nobuyuki

  Department Of Physics Kochi University

• BRAJCZEWSKA Marta

  Departamento de Fisica, Universidade de Coimbra

• Brajczewska Marta

  Departamento De Fisica Universidade De Coimbra

• AKAIKE Hideaki

  Department of Applied Science, Kochi University

• Akaike Hideaki

  Physics Division Faculty Of Science Kochi University

• Providencia da

  Departamento de Fisica,Unzversidade de Coimbra

• PROVIDENCIA DA

  Faculty of Engineering, Kansas University

• Fujiwara Yoshikazu

  Department Of Clinical Gene Therapy Osaka University Graduate School Of Medicine

• FUJIWARA Yoshikazu

  School of Physics, University of Minnesota

• FUJIWARA Yoshikazu

  Research Institute for Fandamental Physics, Kyoto University

• PROVIDENCIA joao

  Faculty of Engineering, Kansai University

• Joao da

  Departamento de Fisica, Universidade de Coimbra

• PROVIDENCIA Joao

  Departamento de Fisica, Universidade da Beira Interior

• Kuriyuama Atsushi

  Faculty of Engineering, Kansai University

• AKAIKE Hideaki

  Physics Division, Faculty of Science, Kochi University

• TSUE Yasuhiko

  Department of Physics, Kochi University

• TSUE Yasuhiko

  Physics Division, Faculty of Science, Koch University

• AZUMA Nobuyuki

  Department of Physics, Kochi University

• FUJIWARA Yoshikazu

  Institute of Theoretical Physics, University of Regensburg : Department of Physics, Kyoto University

• Constanca PROVIDENCIA

  Departamento de Fisica, Universidade de Coimbra

もっと見る 閉じる

著作論文

• First-Order Quark-Hadron Phase-Transition in a NJL-Type Model for Nuclear and Quark Matter : The Case of Symmetric Nuclear Matter(Nuclear Physics)
• A Refined Numerical Result on the First Excitation Energy in the Two-Level Pairing Model(Nuclear Physics)
• Classical and Quantal Descriptions of Small Amplitude Fluctuations around Equilibriums in the Two-Level Pairing Model(Nuclear Physics)
• The Lipkin Model in Many-Fermion System as an Example of the su(1, 1) ⊗ su(1, 1)-Algebraic Model(Nuclear Physics)
• A Note on the Two-Level Pairing Model Obeying the su (2) ⊗ su (2)-Algebra : Re-formation in Terms of the su (1, 1) ⊗ su (1, 1)-Algebra(Nuclear Physics)
• A New Boson Realization of the Two-Level Pairing Model in a Many-Fermion System and Its Classical Counterpart : The Role of the su (2) ⊗ su (1, 1)-Coherent State in the Schwinger Boson Representation for the su (2) ⊗ su (2)-Algebra(Nuclear P
• Note on Many-Quark Model with su(4) Algebraic Structure(Nuclear Physics)
• On the Exact Eigenstates and the Ground States Based on the Boson Realization for Many-Quark Model with su(4) Algebraic Structure(Nuclear Physics)
• Many-Quark Model with su(4) Algebraic Structure : An Example of Analytically Soluble Many-Fermion System(Nuclear Physics)
• Semi-Classical Approach to the Two-Level Pairing Model : Various Aspects of Phase Change(Nuclear Physics)
• Boson Realization of the su (3)-Algebra. IV : Holstein-Primakoff Representation for the Elliott Model (Nuclear Physics)
• Boson Realization of the su (3)-Algebra. III : Schwinger Representation for the Elliott Model (Nuclear Physics)
• Boson Realization of the su(3)-Algebra. II : Holstein-Primakoff Representation for the Lipkin Model(Nuclear Physics)
• Boson Realization of the su(3)-Algebra. I : Schwinger Representation for the Lipkin Model(Nuclear Physics)
• The Lipkin Model in the su(M+1)-Algebra for Many-Fermion System and Its Counterpart in the Schwinger Boson Representation(Nuclear Physics)
• A Possible Boson Realization of the so(4)-and the so(3, 1)-Algebra : In Relation to the Runge-Lenz-Pauli Vector(Nuclear Physics)
• A Note on the Eigenvalue Problem in the su(1, 1)-Algebra(Nuclear Physics)
• On the Eigenvalue Problem of the su(1,1)-Algebra and the Coupling Scheme of Two su(1,1)-Spins(Nuclear Physics)
• Coupling Schemes for an n su(2) Spin System(Nuclear Physics)
• The Heisenberg Antiferromagnet : An Explicitly Rotational Invariant Formulation(Condensed Matter and Statistical Physics)
• An Orthogonal Set Constituted by Eight Kinds of Boson Operators
• A Note on a Boson Realization in Many-Boson System
• On the Coupling of Two su(1, 1)Spins in the Holstein-Primakoff Type Boson Representation
• On Parametric Resonance in Quantum Many-Body System : Collective Motion and Quantum Fluctuation around It in Coupled Lipkin Model(Nuclear Physics)
• Deformed Boson Scheme Stressing Even-Odd Boson Number Difference. III : Parameter-Dependent Deformation
• Deformed Boson Scheme Stressing Even-Odd Boson Number Difference. II : Unified Forms of Boson-Pair Coherent States in Even- and Odd-Boson Systems(Nuclear Physics)
• A Note on Classical Orbits, Collective Submanifold and Quantal Collective Subspace : Progress Letters
• Specification of Collective Submanifold by Adiabatic Time-Dependent Hartree-Fock Method : Coupled Lipkin Model
• Generalized Center of Mass and Relative Motions in Classical Many-Body System : An Example of Solutions of Equations of Collective Submanifold : Nuclear Physics
• Unique Specification of Collective Submanifold : Nuclear Physics
• Quasi-Spin Squeezed State for Lipkin Model : Nuclear Physics
• A Boson System Interacting with an External Harmonic Oscillator : The su(1,1)-Spin Like Behavior in the su(2)-Spin System : Nuclear Physics
• Three Forms of Coherent States in the su(2)-Spin System and Related Classical Counterparts : Nuclear Physics
• Imperfect Bose System and Its Mixed State Representation. II : Numerical Analysis with a Short-Range Replusive Force(Nuclear Physics)
• Imperfect Bose System and Its Mixed State Representation. II : Numerical Analysis with a Short-Range Replusive Force
• Deformed Boson Scheme Stressing Even-Odd Boson Number Difference. I : Various Forms of Boson-Pair Coherent State(Nuclear Physics)
• Deformed Boson Scheme Stressing Even-Odd Boson Number Difference. I : Various Forms of Boson-Pair Coherent State
• Note on the Orthogonal Set in Six Kinds of Boson Operators : In Relation to the su(1,1)- and Its Relevant Algebras
• A Possible Form of the Orthogonal Set in Six Kinds of Boson Operators : In Relation to the su(2)- and Its Relevant Algebras
• On the Boson Number Operator in the Deformed Boson Scheme
• The su(1,1)-Algebraic Boson Model in the Deformed Boson Scheme : The Second Holstein-Primakoff Representation as q-Deformed Boson Operator(Nuclear Physics)
• The su (1, 1)-Algebraic Boson Model in the Deformed Boson Scheme : The Second Holstein-Primakoff Representation as q-Deformed Boson Operator
• Note on the Deformed Boson Scheme in Four Kinds of Boson Operators
• Even-Odd Effect on the Thermal Equilibrium State of the Pairing Model. II : Mean Field Approximation and Renormalized Distribution
• Even-Odd Effect on the Thermal Equilibrium State of the Pairing Model. I : Comparison between Canonical and Grand Canonical Ensembles
• Deformed Boson Scheme including Conventional q-Deformation in Time-Dependent Variational Method. IV : The su(2)_q-and the su(1, 1)_q-Algebras in Four Kinds of Boson Operators
• Two Contrastive Boson-Pair Coherent States in Deformed Boson Scheme
• On the Multiboson Coherent State in Deformed Boson Scheme
• Note on the Deformed Boson Scheme in Time-Dependent Variational Method
• Deformed Boson Scheme including Conventional q-Deformation in Time-Dependent Variational Method. III : Deformation of the su(2,1)-Algebra in Terms of Three Kinds of Boson Operators
• Schwinger-Type Boson Realization for the su(4) Algebra : In Relation to the Description of Many-Fermion Systems in Pairing Correlation
• Schwinger-Type Boson Realization for Three Sub-Algebras of the su(4) Algebra : The so(5), the so(4) and the su(2)⊗su(2) Algebra
• Utility of su(1,1)-Algebra in a Schematic Nuclear su(2)-Model
• On the Color-Singlet States in Many-Quark Model with the su(4)-Algebraic Structure. III : Transition from the Quark-Triplet to the Quark-Pair Phase(Nuclear Physics)
• On the Color-Singlet States in Many-Quark Model with the su(4)-Algebraic Structure. II : Determination of Ground-State Energies(Nuclear Physics)
• On the Color-Singlet States in Many-Quark Model with the su(4)-Algebraic Structure. I : Color-Symmetric Form(Nuclear Physics)
• Deformed Boson Scheme including Conventional q-Deformation in Time-Dependent Variational Method.II : Deformation of the su(2)- and the su(1, 1)-Algebras in the Schwinger Boson Representation
• Deformed Boson Scheme including Conventional q-Deformation in Time-Dependent Variational Method.I : The Case of Many-Body Systems Consisting of One Kind of Boson Operator
• A Possible Boson Realization of Generalized Lipkin Model for Many-Fermion System : The su(M+1)-Algebraic Model in Non-Symmetric Boson Representation
• Pairing Model and Mixed State Representation. II : Grand Partition Function and Its Mean Field Approximation
• Pairing Model and Mixed State Representation. I : Thermal Equilibrium State
• Canonical Formulation of Mixed State and Irreducible Representation of u(M) Algebra
• Time-Evolution of the Cohererut and the Squeezed States of Many-Body Systems Based on the Basic Idea of the Boson Mapping and the TDHF Method
• Imperfect Bose System and Its Mixed State Representation. I : Thermal Equilibrium State of Imperfect Bose System
• The Lipkin Model in a New Boson Realization : Basic Idea
• A Possible Description of Many-Body System Composed of Four Kinds of Boson Operators : In Relation to the su(2)- and the su(1,1)-Algebraic Model
• On the Schwinger Boson Representation of an Extended (M+1)(N+1)-Dimensional Algebra Containing the su(M+1)- and the su(N,1)-Algebra
• A Possible Description of Classical Motion in Quantal Systems
• Note on the Minimum Weight States in the su(2)-Algebraic Many-Fermion Model : Extension of the Role of the Auxiliary su(2)-Algebra(Nuclear Physics)
• Background of the su(2)-Algebraic Many-Fermion Models in the Boson Realization : Construction of Minimum Weight States by Means of an Auxiliary su(2)-Algebra and Its Related Problems(Nuclear Physics)
• Instability of Thermal Equilibrium State of the Liplin Model
• Thermal Effect in Linpkin ModelIII : Dynamical Fluctuation of Thermal Equilibrium State
• Thermal Effect in Lipkin ModelII : Grand partition Function and Mean Field Approximation
• Thermal Effect in Lipkin ModelI : Thermal Equilibrium State and Phase Transition
• Instability of Thermal Equilibrium State of the Lipkin Model : Nuclear Physics
• On the q-Boson Realization of the su_q(2) and su_q(1,1) Algebras : The Marumori-Yamamura-Tokunaga Method : Nuclear Physics
• A Boson System Interacting with an External Harmonic Oscillator : A Possible Description of Statistically Mixed State
• A Possible Description of Many-Body System Composed of Three Kinds of Boson Operators : The su(2,1)-Boson Model : Neuclear Physics
• Modification of the Conventional Holstein-Primakoff Boson Representation for the su(1,1)-Algebra and Its Classical Counterpart
• Three Forms of Boson Expansions for the su(2)-Spin System and Their c-Number Counterparts : Nuclear Physics
• Thermal Effect in the Lipkin Model. III : Dynamical Fluctuation of Thermal Equilibrium State
• Thermal Effect in Lipkin Model. II : Grand Partition Function and Mean Field Approximation
• Note on Boson Expansion and Boson Coherent State for the su(2)-Spin System
• Thermal Effect in Lipkin Model. I : Thermal Equilibrium State and Phase Transition : Nuclear Physics
• Description of Thermal Effects in su(1, 1)-Algebraic Model Derived from Nuclear su(2) -Model
• On the Hamiltonians Expressed in Terms of su (1, 1)-Generators for Describing Thermal Effects in Nuclear su(2) -Models
• Investigation of the Minimal Uncertainty Appearing in the Quasi-Spin Coherent and the Quasi-Spin Squeezed State of Many-Fermion System : The Case of Many-Nucleon System in Pairing Correlation : Nuclear Physics
• Thermal Effects and Dissipation in su(1, 1)-Algebraic Model by Means of Time-Dependent Variational Approach : Nuclear Physics
• A Possible Classical Description for su(1, 1)-Spin Systems : Nuclear Physics
• On the Coherent and the Squeezed State in the su(2)-Boson Model : Nuclear Physics
• On the Canonical Equivalence of Classical Boson Expansions for Mixed States : Nuclear Physics
• Application of the Canonical Theory of Mixed State to the Description of Bound State of the Nucleus. II : Schematic Model and Physical Ingredients of Constraints : Nuclear Physics
• Description of Mixed States Based on the Time-Dependent Hartree-Fock Theory. III : Random Phase Approximation and Its First Order Corrections : Nuclear Physics
• Application of the Canonical Theory of Mixed State to the Description of Bound States of the Nucleus. I : Reformulation of the Theory of Mixed State : Nuclear Physics
• Two Types of Schrodinger Time Evolution in the Formalism of Thermo Field Dynamics and Their Equivalence to the Liouville-von Neumann Equation

もっと見る 閉じる

スポンサーリンク