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Spherical accretion with anisotropic thermal conduction
P. Sharma
,
E. Quataert
, J. M. Stone
Astrophysical Sciences
Princeton Institute for Computational Science and Engineering
Research output
:
Contribution to journal
›
Article
›
peer-review
45
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Keyphrases
Magnetothermal Properties
100%
Anisotropic Thermal Conduction
100%
Spherical Accretion
100%
Field Lines
66%
Large Radius
50%
Accretion Flow
33%
Accretion Rate
33%
Initial Field
33%
Radial Magnetic Field
33%
Field Strength
16%
Magnetic Field
16%
Magnetic Energy
16%
Virion
16%
Galactic Center
16%
Quasi-linear
16%
Collisionality
16%
Plasma Flow
16%
Weak Field
16%
Saturated State
16%
Temperature Gradient
16%
Free Field
16%
Radial Field
16%
Thermal Conduction
16%
Energy Release
16%
Small Radius
16%
Sgr A*
16%
Gravitational Potential Energy
16%
Magnetohydrodynamical Simulations
16%
Conductive Heat Flux
16%
Convective Heat Flux
16%
Resistive Heating
16%
Faraday Rotation Measure
16%
Background Temperature
16%
Potential Energy Density
16%
Spitzer
16%
Physics
Magnetic Field
100%
Heat Conduction
100%
Flux Density
66%
Magnetohydrodynamic Simulation
33%
Field Strength
33%
Galactic Center
33%
Potential Energy
33%
Temperature Gradients
33%
Gravitational Field
33%
Faraday Effect
33%