1D diagnostics

xgc.oneddiag.bp contains diagnostics of flux-surface averaged quantities.

Remarks

There are two radial discretizations in the 1D diagnostics: one set by the input parameter sml_00_npsi and one set by the number of closed flux surfaces crossing the lower-field-side midplane (# flux surfaces). There can be narrow flux surfaces that do not cross the lower-field-side midplane and these are not included in the default 1D diagnostics.

For neoclassical simulations (XGCa) it is advisable to calculate the proper flux-surface averaged fluxes by using the 2D diagnostics, and either the node volumes in Mesh or the flux-surface averaging matrix in Matrix operations. The reason is that the neoclassical fluxes are so small that it is important to accurately split the adiabatic and non-adiabatic parts of the distribution function.

xgc.oneddiag.bp
Printed when: diag_1d_on=.true..   Output frequency: diag_1d_period.

Output	Dimension	Units	Description
cden00_1d	# time steps \(\times\) sml_00_npsi	Units	Description
e_gc_density_1d i_gc_density_1d	# time steps \(\times\) # flux surfaces	\({\mathrm{m}}^{-3}\)	Electron/Ion density …
e_gc_density_df_1d i_gc_density_df_1d	# time steps \(\times\) # flux surfaces	\({\mathrm{m}}^{-3}\)	Description
e_gc_poloidal_flow_1d i_gc_poloidal_flow_1d	# time steps \(\times\) # flux surfaces	Units	Description
e_gc_poloidal_flow_df_1d i_gc_poloidal_flow_df_1d	# time steps \(\times\) # flux surfaces	Units	Description
e_gc_toroidal_flow_1d i_gc_toroidal_flow_1d	# time steps \(\times\) # flux surfaces	Units	Description
e_gc_toroidal_flow_df_1d i_gc_toroidal_flow_df_1d	# time steps \(\times\) # flux surfaces	Units	Description
e_grad_psi_sqr_1d i_grad_psi_sqr_1d	# time steps \(\times\) # flux surfaces	Units	Description
e_grad_psi_sqr_df_1d i_grad_psi_sqr_df_1d	# time steps \(\times\) # flux surfaces	Units	Description
e_parallel_flow_1d i_parallel_flow_1d	# time steps \(\times\) # flux surfaces	Units	Description
e_parallel_flow_df_1d i_parallel_flow_df_1d	# time steps \(\times\) # flux surfaces	Units	Description
e_parallel_mean_en_1d i_parallel_mean_en_1d	# time steps \(\times\) # flux surfaces	Units	Description
e_parallel_mean_en_df_1d i_parallel_mean_en_df_1d	# time steps \(\times\) # flux surfaces	Units	Description
e_perp_temperature_1d i_perp_temperature_1d	# time steps \(\times\) # flux surfaces	\(\mathrm{eV}\)	Description
e_perp_temperature_df_1d i_perp_temperature_df_1d	# time steps \(\times\) # flux surfaces	\(\mathrm{eV}\)	Description
e_poloidal_ExB_flow_1d i_poloidal_ExB_flow_1d	# time steps \(\times\) # flux surfaces	Units	Description
e_poloidal_ExB_flow_df_1d i_poloidal_ExB_flow_df_1d	# time steps \(\times\) # flux surfaces	Units	Description
e_radial_en_flux_1d i_radial_en_flux_1d	# time steps \(\times\) # flux surfaces	Units	Description
e_radial_en_flux_3db_1d i_radial_en_flux_3db_1d	# time steps \(\times\) # flux surfaces	Units	Description
e_radial_en_flux_3db_df_1d i_radial_en_flux_3db_df_1d	# time steps \(\times\) # flux surfaces	Units	Description
e_radial_en_flux_ExB_1d i_radial_en_flux_ExB_1d	# time steps \(\times\) # flux surfaces	Units	Description
e_radial_en_flux_ExB_df_1d i_radial_en_flux_ExB_df_1d	# time steps \(\times\) # flux surfaces	Units	Description
e_radial_en_flux_df_1d i_radial_en_flux_df_1d	# time steps \(\times\) # flux surfaces	Units	Description
e_radial_flux_1d i_radial_flux_1d	# time steps \(\times\) # flux surfaces	Units	Description
e_radial_flux_3db_1d i_radial_flux_3db_1d	# time steps \(\times\) # flux surfaces	Units	Description
e_radial_flux_3db_df_1d i_radial_flux_3db_df_1d	# time steps \(\times\) # flux surfaces	Units	Description
e_radial_flux_ExB_1d i_radial_flux_ExB_1d	# time steps \(\times\) # flux surfaces	Units	Description
e_radial_flux_ExB_df_1d i_radial_flux_ExB_df_1d	# time steps \(\times\) # flux surfaces	Units	Description
e_radial_flux_df_1d i_radial_flux_df_1d	# time steps \(\times\) # flux surfaces	Units	Description
e_radial_mom_flux_1d i_radial_mom_flux_1d	# time steps \(\times\) # flux surfaces	Units	Description
e_radial_mom_flux_ExB_1d i_radial_mom_flux_ExB_1d	# time steps \(\times\) # flux surfaces	Units	Description
e_radial_mom_flux_ExB_df_1d i_radial_mom_flux_ExB_df_1d	# time steps \(\times\) # flux surfaces	Units	Description
e_radial_mom_flux_df_1d i_radial_mom_flux_df_1d	# time steps \(\times\) # flux surfaces	Units	Description
e_tor_angular_momentum_1d i_tor_angular_momentum_1d	# time steps \(\times\) # flux surfaces	Units	Description
e_tor_angular_momentum_df_1d i_tor_angular_momentum_df_1d	# time steps \(\times\) # flux surfaces	Units	Description
e_vpar_x_B_1d i_vpar_x_B_1d	# time steps \(\times\) # flux surfaces	Units	Description
e_vpar_x_B_df_1d i_vpar_x_B_df_1d	# time steps \(\times\) # flux surfaces	Units	Description
eden00_1d iden00_1d	# time steps \(\times\) sml_00_npsi	Units	Description
gsamples	# time steps	Units	Description
pot00_1d	# time steps \(\times\) sml_00_npsi	Units	Description
psi	Dimension	Units	Description
psi00	# time steps \(\times\) sml_00_npsi	Units	Description
psi_mks	Dimension	Units	Description
samples	# time steps	Units	Description
step	# time steps	Positive integer	(1, 2, …, # time steps) \(\times\) diag_1d_period, i.e. the simulation time steps when the diagnostics are printed.
time	# time steps	Units	Description
tindex	# time steps	Positive integer	1, 2, …, # time steps

Usage example

Time evolution of the radial profiles of flux-surface averaged density, temperature, and radial particle and energy fluxes.