3D Diagnostics
This page is generated from in-code XGC I/O metadata by utils/python/document_outputs.py.
Three-dimensional diagnostic outputs. Some call sites share metadata with the corresponding 2D file.
xgc.2d/3d.*.bp
Variable |
Units |
Description |
|---|---|---|
|
T m |
Field-following As components at gyrocenter |
|
T m |
Perturbed parallel vector potential A_h |
|
T m |
Perturbed scalar potential components As |
|
T m |
Field-following derivatives of As at gyrocenter |
|
T |
Toroidal magnetic field perturbation in Tesla |
|
T |
Radial magnetic field perturbation in Tesla |
|
T |
Poloidal magnetic field perturbation in Tesla |
|
V s^-1 |
Time derivative of perturbed potential |
|
V m^-1 s^-1 |
Time derivative of electric field across flux surfaces |
|
V m^-1 s^-1 |
Time derivative of electric field along flux surfaces |
|
V |
Perturbed potential in volt. |
|
V |
Electrostatic potential |
|
V |
n=0 component of perturbed potential |
|
m^-3 |
Electron density at each mesh node interpolated from surrounding marker particles |
|
A m^-2 |
Electron parallel current density |
|
V/m |
Parallel (to the magnetic field) electric field |
|
V/m |
Parallel electric field for evaluating \(\partial A_s/\partial t = -\mathbf{b}\cdot\nabla\phi\) |
|
V/m |
Radial electric field in Volt per meter |
|
V/m |
Poloidal electric field in Volt per meter |
|
m^-3 |
Ion density at each mesh node interpolated from surrounding marker particles |
|
A m^-2 |
Ion parallel current density |
|
Positive integer |
Index of local plane (0-based) |
|
Positive integer |
Number of 3D mesh nodes. |
|
Integer index |
Mapping from mesh node to wall index |
|
Positive integer |
Number of toroidal mesh planes \(N_{\mathrm{planes}}\). |
|
Positive integer |
Number of wall vertices |
|
rad |
Toroidal angle of this plane |
|
rad |
Toroidal angle of left plane |
|
rad |
Toroidal angle of right plane |
|
V |
Axisymmetric, flux-surface averaged (n=0, m=0) electric potential |
|
V |
Axisymmetric (n=0, m>0) electric potential |
|
Positive integer |
Number of unique planes of sheath potential |
|
V |
Sheath potential |
|
# marker particles |
Marker density at each mesh node interpolated from surrounding marker particles |
|
#real / #marker |
Mean particle weight (real particles / marker particles) at each mesh node |
|
eV |
Temperature moment |
|
m/s |
Parallel velocity moment |
|
(#real)^2 / #marker |
Particle weight variance at each mesh node |
|
m^-3 |
Density moment |
|
s |
Simulation time of step in seconds |
xgc.f2d/f3d.*.bp
Variable |
Units |
Description |
|---|---|---|
|
eV |
Perpendicular temperature for each non-adiabatic species. |
|
eV |
Parallel temperature for each non-adiabatic species. |
|
m/s |
Parallel bulk flow for each non-adiabatic species. |
|
m^-3 |
Density for each non-adiabatic species. |
|
channel-dependent |
Velocity-space moment for each non-adiabatic species. [channel] is one of toroidal_flow, poloidal_flow, parallel_flow, radial_flux_ExB, radial_flux_mag, radial_flux_3db, tor_ang_mom, rad_mom_flux_ExB, rad_mom_flux_mag, rad_mom_flux_3db, radial_en_flux_ExB, radial_en_flux_mag, radial_en_flux_3db, radial_pot_en_flux_ExB, radial_pot_en_flux_mag, radial_pot_en_flux_3db, par_mom_flux, par_en_flux, or par_pot_en_flux. [component] is n0 or turb in XGC1 and omitted in XGCa. [contribution] is f0 for the adiabatic contribution or df for the non-adiabatic contribution. |
|
m^-3 |
Energy-binned density for XGC1 turbulent non-adiabatic moments. |
|
eV |
Energy-bin coordinate for XGC1 turbulent non-adiabatic moments. |
|
m^-2 s^-1 |
Energy-binned ExB particle flux for XGC1 turbulent non-adiabatic moments. |
|
J m^-2 s^-1 |
Energy-binned ExB energy flux for XGC1 turbulent non-adiabatic moments. |
|
m^-3 |
Species density perturbation added to the analytic f0 background. |
|
m/s |
Species flow perturbation added to the analytic f0 background. |
|
eV |
Species temperature perturbation added to the analytic f0 background. |
|
V |
Perturbed potential at the midplane, written by XGC1. |
|
V |
Axisymmetric potential, written by XGC1. |