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Computing the viscosity of supercooled liquids: Markov network model
Ju Li
, Akihiro Kushima
, Jacob Eapen
, Xi Lin
, Xiaofeng Qian
,
John C. Mauro
, Phong Diep
, Sidney Yip
Materials Science and Engineering
Research output
:
Contribution to journal
›
Article
›
peer-review
31
Scopus citations
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Keyphrases
Temperature Effect
100%
Network Model
100%
Viscosity
100%
Activation Barrier
100%
Supercooled Liquid
100%
Markov Network
100%
Vitrification
50%
First-principles
50%
Order of Magnitude
50%
Temperature Variation
50%
High Temperature
50%
Potential Energy
50%
Energy Landscape
50%
Transition State
50%
Glass Transition
50%
Local Energy
50%
Scaling Behavior
50%
Potential Energy Surface
50%
Liquid-like
50%
Shear Viscosity
50%
Low Temperature Behaviour
50%
Master Equation
50%
Markovian
50%
Microscopic Origin
50%
Landscape Topography
50%
Energy Minimum
50%
Viscosity Change
50%
Shear Stress Relaxation
50%
Liquid Viscosity
50%
High-temperature Viscosity
50%
Engineering
Fluid Viscosity
100%
Network Model
100%
Low-Temperature
50%
Arrhenius
50%
Potential Energy
50%
Stress Relaxation
25%
Energy Surface
25%
Temperature Behavior
25%
Shear Viscosity
25%
Master Equation
25%
Liquid Viscosity
25%
Material Science
Stress Relaxation
100%
Surface Energy
100%
Glass Transition
100%
Vitrification
100%
Energy Landscape
100%
Earth and Planetary Sciences
Potential Energy
100%
Temperature Variation
50%
Stress Relaxation
50%
Physics
Potential Energy
100%
First Principle
50%
Stress Relaxation
50%
Food Science
Energy Landscape
100%