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MHD stability constraints on divertor heat flux width in DIII-D
A. W. Leonard
*
,
A. E. Jaervinen
, A. G. McLean
, F. Scotti
*
Corresponding author for this work
Not published at VTT
General Atomics
Lawrence Livermore National Laboratory
Research output
:
Contribution to journal
›
Article
›
Scientific
›
peer-review
4
Citations (Scopus)
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INIS
density
100%
width
100%
stability
100%
constraints
100%
heat flux
100%
divertors
100%
diii-d
100%
magnetohydrodynamics
100%
pressure gradients
83%
power
66%
sols
66%
scaling
50%
ballooning instability
50%
heating
33%
electrons
33%
ions
33%
plasma density
33%
levels
16%
expansion
16%
control
16%
plasma
16%
reactors
16%
tokamak devices
16%
confinement
16%
power density
16%
Keyphrases
DIII-D
100%
Pressure Gradient
100%
MHD Stability
100%
Divertor Heat Flux
100%
Heat Flux Width
100%
Stability Constraints
100%
Separatrix
60%
Balloon
60%
SOL Width
60%
Divertor Plasma
40%
High Density
40%
Empirical Scaling
40%
High Power
40%
Heating Power
40%
Reactor Scale
20%
Tokamak
20%
Mid-plane
20%
Divertor Detachment
20%
Heat Flux
20%
Radial Direction
20%
Power Density
20%
Potential Analysis
20%
Input Power
20%
Plasma Density
20%
Stability Limit
20%
Poloidal Field
20%
High Input
20%
Separation Density
20%
Electron Pressure
20%
Heat Flux Manipulation
20%
Ideal MHD
20%
Exhaust Heat
20%
Plasma Density Profile
20%
Width Expansion
20%
Engineering
Magnetohydrodynamic Generator
100%
Pressure Gradient
100%
Heat Flux
100%
Heating Power
40%
Saturates
40%
Plasma Density
40%
Radial Direction
20%
Power Density
20%
Input Power
20%
Tokamak Device
20%
Physics
Magnetohydrodynamic Generator
100%
Pressure Gradient
100%
Plasma Density
40%
Tokamak Device
20%
Blood Plasma
20%
Chemical Engineering
Heat Flux
100%