All Stories

  1. Heterogeneous dynamics in nanoporous materials examined by molecular dynamics simulations -effects of modification of caged ion dynamics-
  2. Anisotropic and intermittent motions of caged ions
  3. Fundamentals and Applications of Ionics--Experiments, Theories, simulations
  4. Enhancement of Ionics in Nano-Porous Materials
  5. Introduction
  6. Experimental Probes for Ion Dynamics
  7. Electrical Response of Ionic Conductors
  8. NMR Experiments in Ionic Conductors
  9. Nanoionics
  10. Molecular Dynamics Simulations
  11. Some Applications and Further Problems
  12. Theories and Models of Ion Diffusion
  13. Ionic Liquids: Physics Bridging Two Fields
  14. Molecular Dynamics Simulation of Silicate Glasses
  15. The Mixed Alkali Effect Examined by Molecular Dynamics Simulations
  16. Molecular Dynamics Simulations of Ionic Liquids
  17. Practical Introduction to the MD Simulations of Ionic Systems
  18. Molecular dynamics study of one component soft-core system - Analytical expression of non-equilibrium relaxation in constant pressure conditions
  19. Rigidity and soft percolation in the glass transition of an atomistic model of ionic liquid, 1-ethyl-3-methyl imidazolium nitrate, from molecular dynamics simulations—Existence of infinite overlapping networks in a fragile ionic liquid
  20. An alternative explanation of the change in T-dependence of the effective Debye-Waller factor at Tc or TB
  21. Molecular dynamics study of heterogeneous dynamics in lithium disilicate crystal
  22. Erratum: “Thermodynamic scaling of α-relaxation time and viscosity stems from the Johari-Goldstein β-relaxation or the primitive relaxation of the coupling model” [J. Chem. Phys. 137, 034511 (2012)]
  23. Formation of gels from colloidal solution examined by MD simulations
  24. Molecular dynamics study of network statistics in lithium disilicate: Qn distribution and the pressure-volume diagram
  25. Mixed Alkali Effect in Alkali Metasilicate Glasses
  26. Molecular dynamics study of one-component soft-core system: Thermodynamic properties in the supercooled liquid and glassy states
  27. Thermodynamic scaling in ionically conducting glasses and melts
  28. Thermodynamic scaling of α-relaxation time and viscosity stems from the Johari-Goldstein β-relaxation or the primitive relaxation of the coupling model
  29. Molecular dynamics study of a one component soft-core system: thermodynamic properties in the crystalline state
  30. Thermal Behavior of Caged Silsesquioxane (POSS) Studied by Molecular Dynamics Simulations
  31. Several routes to the glassy states in the one component soft core system: Revisited by molecular dynamics
  32. Multifractal nature of heterogeneous dynamics and structures in glass forming ionic liquids
  33. Molecular dynamics studies of ionically conducting glasses and ionic liquids: Wave number dependence of intermediate scattering function
  34. Molecular Dynamics Study of Thermodynamic Scaling of the Glass-Transition Dynamics in Ionic Liquids over Wide Temperature and Pressure Ranges
  35. Comparison of Heterogeneous Dynamics in Ionic Liquids and Ionically Conducting Glasses from Molecular Dynamics Simulations
  36. Many-ion Dynamics: The Common View of CM and MC
  37. Mixing effects in glass-forming Lennard-Jones mixtures
  38. Breakdown of the Stokes–Einstein relation in Lennard-Jones glassforming mixtures with different interaction potential
  39. Heterogeneous dynamics of ionic liquids from molecular dynamics simulations
  40. Refinements in the characterization of the heterogeneous dynamics of Li ions in lithium metasilicate
  41. Molecular Dynamics Study of the Dynamics Near the Glass Transition in Ionic Liquids
  42. Molecular Dynamics of Generalized Binary Lennard-Jones Systems: Effects of Anharmonicity and Breakdown of the Stokes-Einstein Relation
  43. On the nature of the heterogeneous dynamics of ions in ionic conducting glasses
  44. Comparison of ion sites and diffusion paths in glasses obtained by molecular dynamics simulations and bond valence analysis
  45. The mixed alkali effect in ionically conducting glasses revisited: A study by molecular dynamics simulation
  46. Molecular dynamics simulation of ion dynamics in glassy ionic conductors: Evidence of the primitive ion hopping process
  47. Heterogeneity, Multi-Fractality and Cooperativity in the Ionically Conducting Glasses
  48. Dynamical significance in alkali metasilicate glasses
  49. Multifractal analysis of dynamic potential surface of ion-conducting materials
  50. Time series analysis of ion dynamics in glassy ionic conductors obtained by a molecular dynamics simulation
  51. Comparison of Dynamics of Ions in Ionically Conducting Materials and Dynamics of Glass-Forming Substances: Remarkable Similarities
  52. Molecular dynamics simulations of the dynamics of ions in single and mixed alkali glasses
  53. “Cooperativity blockage” in the mixed alkali effect as revealed by molecular-dynamics simulations of alkali metasilicate glass
  54. Dynamics of caged ions in glassy ionic conductors
  55. Molecular dynamics study of the mechanism of ion transport in lithium silicate glasses: Characteristics of the potential energy surface and structures
  56. Molecular Dynamics Simulations of “The Cooperativity Blockage Effect” in Alkali Metasilicate
  57. Fast and slow dynamics in single and mixed alkali silicate glasses
  58. A combined molecular dynamics simulation, experimental and coupling model study of the ion dynamics in glassy ionic conductors
  59. Molecular dynamics study of single and mixed alkali metasilicates-spatial and temporal characterization of the dynamics in the supercooled liquid and glassy states
  60. Molecular dynamics study of cage decay, near constant loss, and crossover to cooperative ion hopping in lithium metasilicate
  61. Dynamical fluctuations in ion conducting glasses: Slow and fast components in lithium metasilicate
  62. Monte Carlo simulation of the mixed alkali effect with cooperative jumps
  63. Dynamics in pure and mixed-alkali glasses - spatial and temporal aspects
  64. Fast and Slow Dynamics in Metasilicate Glasses
  65. Characteristics of slow and fast ion dynamics in a lithium metasilicate glass
  66. Slow and fast (Lévy flight) dynamics in alkali metasilicate glasses
  67. Slow and Fast Dynamics in Silicate Gasses.
  68. Loosening of the structure in a mixed alkali glass
  69. Ion Dynamics in Pure and Mixed Alkali Glasses -Separation of the Spatial and Temporal Aspects-
  70. Fracton excitation and Lévy flight dynamics in alkali silicate glasses
  71. Mixed Alkali Effect in Alkali Metasilicate Glasses
  72. MD study of the mixed alkali effect in terms of the potential surface in the lithium-potassium metasilicate glass
  73. Relaxation Processes and the Mixed Alkali Effect in Alkali Metasilicate Glasses
  74. Glassy State and Glass Transition-Its Elucidation and New Applications. II. Structure and Dynamics of Alkali Silicate Glasses. Glass Transition, Relaxation, and the Mixed Alkali Effect.
  75. Origins of the two-step relaxation and the boson peak in an alkali silicate glass studied by molecular-dynamics simulation
  76. MD study of the mixed alkali effect in a lithium&.zsbnd;potassium metasilicate glass
  77. MD Simulation of Crystal Growth from Sodium Chloride Melt
  78. Glass Transition Temperatures Studied by MD Simulation of Some Alkali Metasilicates
  79. Molecular Dynamics Simulation of Alkali Silicates Based on the Quantum Mechanical Potential Surfaces
  80. Molecular Dynamics Study of Li2SiO3in the Liquid and Glassy States
  81. Transport and Dynamical Correlations in Glassy States and the Liquid—Glass Transition of Li2SiO3
  82. A Molecular Dynamics Study for Lithium Metasilicate: Liquid and Quenched Supercooled States
  83. Molecular Dynamics Study of Microscopic Mechanism of Diffusion in Li2SiO3 System
  84. Molecular-dynamics study of glass formation in the Li2SiO3system
  85. Molecular dynamics simulation of molten Li2CO3and Na2CO3
  86. Internal Cation Mobilities and Their Isotope Effects in the Molten System (Li, K)NO3
  87. Internal Cation Mobilities in the Molten Binary System KNO3 — Ca(NO3)2
  88. Internal Cation Mobilities in the Molten Binary Systems KNO3-Sr(NO3)2 and KNO3-Ba(NO3)2
  89. Internal Mobilities in the Binary Molten System (Na, TI)NO3
  90. A molecular dynamics study of the structures and dynamic properties of molten NaBeF3and Na2BeF4
  91. Studies on theG(Fe3+→Fe2+)-value in the Radiolysis Caused by6Li(n,α)T Reaction in Lithium Tris(oxalato)ferrate(III)
  92. Mössbauer Spectroscopic Studies of the Effects of the6Li(n, α)T Reaction in Lithium Tris(oxalato)ferrate(III)