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Thermal conductivity and chiral critical point in heavy ion collisions
Joseph I. Kapusta
, Juan M. Torres-Rincon
Physics and Astronomy (Twin Cities)
Research output
:
Contribution to journal
›
Article
›
peer-review
70
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Scopus citations
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Keyphrases
Thermal Conductivity
100%
Heavy-ion Collisions
100%
Correlation Function
50%
Phase Transition
25%
Transport Properties
25%
Thermodynamics
25%
Heavy Ions
25%
Critical Exponent
25%
Equation of State
25%
Free Energy
25%
Thermodynamic Properties
25%
Quantum Chromodynamics
25%
Coupled Mode Theory
25%
Hydrodynamic Model
25%
Momentum Space
25%
Particle Correlations
25%
Transport Coefficients
25%
Critical Amplitude
25%
Hydrodynamic Fluctuations
25%
Universality Class
25%
Gas-liquid Transition
25%
Thermodynamic Variables
25%
Heavy Ion Accelerator
25%
3D Ising Model
25%
Physics
Ionic Collision
100%
Thermal Conductivity
100%
Transport Property
50%
Thermodynamics
50%
Heavy Ion
25%
Hydrodynamic Model
25%
Equations of State
25%
Quantum Chromodynamics
25%
Ising Model
25%
Coupled Mode
25%
Vapor Phase
25%
Ion Accelerator
25%
Free Energy
25%
Hydrodynamics
25%
Chemistry
Thermal Conductivity
100%
Ionic Collision
100%
Hydrodynamics
50%
Transport Property
50%
Thermodynamics
50%
Ising Model
25%
Free Energy
25%
Equations of State
25%
Heavy Ion
25%
Quantum Chromodynamics
25%
Mathematics
Critical Point
100%
Transport Property
33%
Critical Exponent
16%
Universality Class
16%
Momentum Space
16%
Thermodynamic Variable
16%
Critical Amplitude
16%
Vapor Phase
16%
Ising Model
16%