;+ ; Procedure: ; goes_overview_plot ; ; Purpose: ; Generates daily overview plots for GOES data ; ; Keywords: ; date: start date for the overview plot ; duration: duration of the overview plot, in days; defaults to 1-day ; directory: local directory to save the overview plots to (should end with '/' or '\') ; device: change the plot device for cron plotting (for cron use device = 'z') ; geopack_lshell: calculate L-shell by tracing field lines ; to the equator instead of using the dipole assumption ; skip_ae_idx: set this keyword to skip downloading/plotting AE data ; error: 1 indicates an error, 0 for no error ; ; * Keywords specific to creating overview plots in the GUI: ; gui_overplot: overview plot was created in the GUI ; oplot_calls: pointer to an int for tracking calls to overview plots - for ; avoiding overwriting tplot data already loaded during this session ; import_only: Used to make this routine import the data into the gui, but not plot it. ; ; Notes: ; For GOES 13-15: ; Panel 1: Kyoto AE, THEMIS AE ; Panel 2: B components in SM coordinates (colored), B magnitude (black) ; Panel 3: delta B components, (B components subtracted from the IGRF) ; Panel 4: MAGPD, line plot of protons by energy channel (omni directional) ; Panel 5: EPEAD, line plot of e- by energy channel (omni directional) ; Panel 6: MAGED, line plot of e- by energy channel (omni directional) ; Panel 7: EPEAD high energy protons by energy channel (omni directional) ; Panel 8: X-ray, short wavelength and long wavelength ; ; For GOES 8-12: ; Panel 1: Kyoto AE, THEMIS AE ; Panel 2: B components in SM coordinates (colored), B magnitude (black) ; Panel 3: delta B components, (B components subtracted from the IGRF) ; Panel 4: EPS, line plot of protons measured by the telescope detector by energy channel ; Panel 5: EPS, line plot of integral electron flux by energy channel ; Panel 6: EPS, line plot of protons measured by the dome detector by energy channel ; Panel 7: X-ray, short wavelength and long wavelength ; ; ; ; $LastChangedBy: nikos $ ; $LastChangedDate: 2018-11-16 12:46:28 -0800 (Fri, 16 Nov 2018) $ ; $LastChangedRevision: 26139 $ ; $URL: svn+ssh://thmsvn@ambrosia.ssl.berkeley.edu/repos/spdsoft/tags/spedas_3_2/projects/goes/goes_overview_plot.pro $ ;- pro goes_overview_plot, date = date, probe = probe_in, directory = directory, device = device, $ geopack_lshell = geopack_lshell, duration = duration, gui_overplot = gui_overplot, $ oplot_calls = oplot_calls, error = error, skip_ae_idx = skip_ae_idx, import_only=import_only, $ _extra=_extra compile_opt idl2 error = 0 ; Catch errors and return catch, errstats if errstats ne 0 then begin error = 1 dprint, dlevel=1, 'Error: ', !ERROR_STATE.MSG catch, /cancel return endif ; compile the routines in our GOES library goes_lib ; delete any tplot variables sitting around ;store_data, '*', /delete ; sample GOES overview plot if undefined(probe_in) then probe = '13' else probe=probe_in[0] if undefined(date) then overviewdate = '2013-12-05' else overviewdate = time_string(date) if undefined(duration) then duration = 1 ; days if undefined(oplot_calls) then suffix = '' else suffix = strcompress('_op'+string(oplot_calls[0]), /rem) timespan, overviewdate, duration, /day time = time_struct(overviewdate) prefix = 'g'+probe earth_radius = 6371. window_xsize = 750 window_ysize = 800 if undefined(directory) then dir = path_sep() + 'g'+probe+path_sep() else dir = directory; +path_sep();+'g'+probe+path_sep() if ~undefined(device) then begin set_plot, device device, set_resolution = [window_xsize, window_ysize] endif if undefined(skip_ae_idx) then begin ;;============================================================================= ;; Panel 1: Kyoto and THEMIS AE kyoto_load_ae, datatype = 'ae' ; thm_make_AE thm_load_pseudoAE,datatype='ae' if tnames('thg_idx_ae') eq '' then begin thm_make_AE;no sites check, since the bad sites test is not distributed, jmm, 2018-04-30 endif else copy_data, 'thg_idx_ae', 'thmAE' get_data, 'thmAE', data=thm_ae_data, dlimits=thm_ae_dlimits get_data, 'kyoto_ae', data=kyoto_ae_data, dlimits=kyoto_ae_dlimits if is_struct(kyoto_ae_data) && is_struct(thm_ae_data) then begin combined_ae = fltarr(n_elements(kyoto_ae_data.X), 2) ; combine them into a single AE tplot variable for i=0l, n_elements(kyoto_ae_data.X)-1 do begin ae_nearest_neighbor = find_nearest_neighbor(thm_ae_data.X, kyoto_ae_data.X[i]) if ae_nearest_neighbor ne -1 then begin combined_ae[i,0] = thm_ae_data.Y[where(thm_ae_data.X eq ae_nearest_neighbor)] combined_ae[i,1] = kyoto_ae_data.Y[i] endif else begin combined_ae[i,0] = !values.f_nan combined_ae[i,1] = !values.f_nan endelse endfor str_element, thm_ae_dlimits, 'labels', ['THEMIS AE', 'Kyoto AE'], /add str_element, thm_ae_dlimits, 'colors', [2,0], /add str_element, thm_ae_dlimits, 'ytitle', 'AE index', /add str_element, thm_ae_dlimits, 'ysubtitle', '[nT]', /add str_element, thm_ae_dlimits, 'labflag', 1, /add store_data, 'kyoto_thm_combined_ae'+suffix, data={x: kyoto_ae_data.X, y: combined_ae}, dlimits=thm_ae_dlimits endif else if is_struct(thm_ae_data) then begin ; only THEMIS AE available copy_data, 'thmAE', 'kyoto_thm_combined_ae'+suffix options, 'kyoto_thm_combined_ae'+suffix, 'ytitle', 'AE index' options, 'kyoto_thm_combined_ae'+suffix, 'labels', 'THEMIS AE' options, 'kyoto_thm_combined_ae'+suffix, 'labflag', 1 options, 'kyoto_thm_combined_ae'+suffix, 'ysubtitle', '[nT]' endif else if is_struct(kyoto_ae_data) then begin ; only Kyoto AE available copy_data, 'kyoto_ae', 'kyoto_thm_combined_ae'+suffix options, 'kyoto_thm_combined_ae'+suffix, 'ytitle', 'AE index' options, 'kyoto_thm_combined_ae'+suffix, 'labels', 'Kyoto AE' options, 'kyoto_thm_combined_ae'+suffix, 'labflag', 1 options, 'kyoto_thm_combined_ae'+suffix, 'ysubtitle', '[nT]' endif endif ;;============================================================================= ; Panel 2: magnetic field components in SM coordinates goes_load_data, datatype='fgm', probes = probe, /avg_1m, suffix = suffix total_field = (uint(probe) ge 13) ? 'g'+probe+'_HT_1'+suffix : 'g'+probe+'_ht'+suffix enp_tvar_name = (uint(probe) ge 13) ? 'g'+probe+'_H_enp_1'+suffix : 'g'+probe+'_H_enp'+suffix ; make sure ephemeris data was loaded. if tnames('g'+probe+'_pos_gei'+suffix) ne '' then begin ; make our transformation matrix for transforming to GEI coordinates enp_matrix_make, 'g'+probe+'_pos_gei'+suffix ; make sure the tvariable is loaded if tnames(enp_tvar_name) ne '' then begin ; rotate the field data into GEI coordinates tvector_rotate, 'g'+probe+'_pos_gei'+suffix+'_enp_mat', enp_tvar_name, /invert ; we really want the data in SM coordinates, so we go GEI->GSE->GSM->SM cotrans, enp_tvar_name+'_rot', 'g'+probe+'_H_gse'+suffix, /GEI2GSE cotrans, 'g'+probe+'_H_gse'+suffix, 'g'+probe+'_H_gsm'+suffix, /GSE2GSM cotrans, 'g'+probe+'_H_gsm'+suffix, 'g'+probe+'_H_sm'+suffix, /GSM2SM ; need to update the dlimits structure for the B-field vector in SM coordinates get_data, 'g'+probe+'_H_sm'+suffix, dlimits = b_sm_dlimits, data=b_sm_data get_data, total_field, data=b_total_data str_element, b_sm_dlimits, 'labels', ['Bx','By','Bz', 'Bmag'], /add str_element, b_sm_dlimits, 'colors', [2,4,6,0], /add str_element, b_sm_dlimits, 'labflag', -1, /add str_element, b_sm_dlimits, 'ytitle', 'B (SM)', /add str_element, b_sm_dlimits, 'ysubtitle', '[nT]', /add bvec_with_mag = [[b_sm_data.Y], [b_total_data.Y]] store_data, 'g'+probe+'_H_sm'+suffix, dlimits = b_sm_dlimits, data={x: b_sm_data.X, y: bvec_with_mag} endif b_field_tvarname = '_H_sm'+suffix endif else begin ; no ephemeris data was loaded, can't do the ENP->SM transformation ; plot the field data in ENP coordinates b_field_tvarname = '_H_enp'+suffix get_data, enp_tvar_name, dlimits = b_enp_dlimits, data=b_enp_data get_data, total_field, data=b_total_data str_element, b_enp_dlimits, 'labels', ['E','N','P', 'Bmag'], /add str_element, b_enp_dlimits, 'colors', [2,4,6,0], /add str_element, b_enp_dlimits, 'labflag', 1, /add str_element, b_enp_dlimits, 'ytitle', 'B (ENP)', /add str_element, b_enp_dlimits, 'ysubtitle', '[nT]', /add if is_struct(b_enp_data) && is_struct(b_enp_dlimits) then begin bvec_with_mag = [[b_enp_data.Y], [b_total_data.Y]] store_data, 'g'+probe+b_field_tvarname, dlimits = b_enp_dlimits, data = {x: b_enp_data.X, y: bvec_with_mag} endif endelse ;;============================================================================= ; Panel 3: magnetic field components subtracted from IGRF ; make sure we have the B field loaded in SM coordinates and the IDL Geopack ; DLM is installed before trying to calculate the IGRF if tnames('g'+probe+'_H_sm'+suffix) ne '' && igp_test() eq 1 then begin cotrans, 'g'+probe+'_pos_gei'+suffix, 'g'+probe+'_pos_gse'+suffix, /GEI2GSE cotrans, 'g'+probe+'_pos_gse'+suffix, 'g'+probe+'_pos_gsm'+suffix, /GSE2GSM get_data, 'g'+probe+'_pos_gsm'+suffix, data=pos_data igrf_bx = fltarr(n_elements(pos_data.y[*,0])) igrf_by = fltarr(n_elements(pos_data.y[*,1])) igrf_bz = fltarr(n_elements(pos_data.y[*,2])) ; find the IGRF in GSM for each point for i=0, n_elements(pos_data.X)-1 do begin timestr = time_struct(pos_data.X[i]) geopack_recalc, timestr.year, timestr.doy, timestr.hour, timestr.min, timestr.sec, tilt=tilt ; input position units should be in Re geopack_igrf_gsm, pos_data.Y[i,0]/earth_radius, pos_data.Y[i,1]/earth_radius, pos_data.Y[i,2]/earth_radius, dummy_bx, dummy_by, dummy_bz igrf_bx[i] = dummy_bx igrf_by[i] = dummy_by igrf_bz[i] = dummy_bz endfor igrf_b_gsm = fltarr(n_elements(pos_data.Y[*,2]),3) igrf_b_gsm[*,0] = igrf_bx igrf_b_gsm[*,1] = igrf_by igrf_b_gsm[*,2] = igrf_bz store_data, 'igrf_b_gsm'+suffix, data={x: pos_data.X, y: igrf_b_gsm} ; transform the IGRF to SM coordinates cotrans, 'igrf_b_gsm'+suffix, prefix+'igrf_b_sm'+suffix, /GSM2SM get_data, prefix+'igrf_b_sm'+suffix, data=igrf_b_sm get_data, 'g'+probe+'_H_sm'+suffix, data=goes_h_sm deltaB = fltarr(n_elements(goes_h_sm.X), 3) for i=0l, n_elements(goes_h_sm.X)-1 do begin igrf_nearest_neighbor = find_nearest_neighbor(igrf_b_sm.X, goes_h_sm.X[i]) if igrf_nearest_neighbor ne -1 then begin deltaB[i,0] = goes_h_sm.Y[i,0]-igrf_b_sm.Y[where(igrf_b_sm.X eq igrf_nearest_neighbor),0] deltaB[i,1] = goes_h_sm.Y[i,1]-igrf_b_sm.Y[where(igrf_b_sm.X eq igrf_nearest_neighbor),1] deltaB[i,2] = goes_h_sm.Y[i,2]-igrf_b_sm.Y[where(igrf_b_sm.X eq igrf_nearest_neighbor),2] endif else begin deltaB[i,0] = !values.f_nan deltaB[i,1] = !values.f_nan deltaB[i,2] = !values.f_nan endelse endfor store_data, prefix+'_delta_b_sm'+suffix, data={x: goes_h_sm.X, y: deltaB}, dlimits=b_sm_dlimits ; update the dlimits options, prefix+'_delta_b_sm'+suffix, 'labels', ['Bx','By','Bz'] options, prefix+'_delta_b_sm'+suffix, 'labflag', -1 options, prefix+'_delta_b_sm'+suffix, 'ytitle', 'B (SM)-IGRF (SM)' options, prefix+'_delta_b_sm'+suffix, 'ysubtitle', '[nT]' endif ; now load the particle data if uint(probe) ge 13 then begin ;;============================================================================= ; Panel 4: MAGPD, omni-directional protons, by energy goes_load_data, datatype = 'magpd', probes = probe, /avg_1m, suffix = suffix, tplotnames = tplotnames, /noephem goes_magpd_omni_flux, prefix, suffix ;;============================================================================= ; Panel 5: EPEAD, high energy electrons by energy ; this call to the load routine loads both electrons and proton data from EPEAD goes_load_data, datatype = 'epead', probes = probe, /avg_1m, suffix = suffix, tplotnames = tplotnames, /noephem ; the following averages the east and west components for each energy and ; creates a single tplot variable with the 3 EPEAD electron energy channels goes_epead_comb_electron_flux, prefix, suffix ;;============================================================================= ; Panel 6: MAGED, omni-directional electrons, by energy goes_load_data, datatype = 'maged', probes = probe, /avg_1m, suffix = suffix, tplotnames = tplotnames, /noephem goes_maged_omni_flux, prefix, suffix ;;============================================================================= ; Panel 7: EPEAD high energy protons by energy ; the following averages the east and west components for each energy and ; creates a single tplot variable with the 7 EPEAD proton energy channels goes_epead_comb_proton_flux, prefix, suffix endif else begin goes_load_data, datatype = 'eps', probes = probe, /avg_1m, suffix = suffix, tplotnames=tplotnames, /noephem goes_eps_comb_proton_flux, prefix, suffix goes_eps_comb_electron_flux, prefix, suffix endelse ;;============================================================================= ; Panel 8: XRS goes_load_data, datatype = 'xrs', probes = probe, /avg_1m, suffix = suffix, tplotnames = tplotnames, /noephem ;;============================================================================= ; Labels across the bottom: UT, MLT, L-shell if tnames('g'+probe+'_pos_gei'+suffix) ne '' then begin ; first, we need to use the position to calculate MLT cotrans, 'g'+probe+'_pos_gei'+suffix, 'g'+probe+'_pos_gse'+suffix, /GEI2GSE cotrans, 'g'+probe+'_pos_gse'+suffix, 'g'+probe+'_pos_gsm'+suffix, /GSE2GSM cotrans, 'g'+probe+'_pos_gsm'+suffix, 'g'+probe+'_pos_sm'+suffix, /GSM2SM get_data, 'g'+probe+'_pos_sm'+suffix, data=goes_pos_sm cart_to_sphere,goes_pos_sm.Y[*,0],goes_pos_sm.Y[*,1],goes_pos_sm.Y[*,2],goes_pos_r,goes_pos_theta,goes_pos_phi,/PH_0_360 ; now we calculate MLT from phi mlt_values = fltarr(n_elements(goes_pos_phi)) mlt_uncor = 12.0 + (goes_pos_phi*!dtor)*24./(2.*!PI) wheregt24 = where(mlt_uncor gt 24., gt24count, complement=wherelt24) mlt_values[wheregt24] = mlt_uncor[wheregt24]-24. mlt_values[wherelt24] = mlt_uncor[wherelt24] store_data, 'g'+probe+'_pos_mlt'+suffix, data={x: goes_pos_sm.X, y: mlt_values} options, 'g'+probe+'_pos_mlt'+suffix,ytitle='MLT' if undefined(geopack_lshell) then begin ; calculate L-shell, assuming a dipole field goes_L_values = (goes_pos_r/earth_radius)/cos(goes_pos_theta*!dtor)^2 endif else begin ; calculate L-shell by tracing IGRF to the equator get_data, 'g'+probe+'_pos_gsm'+suffix, data=goes_pos_gsm goes_L_values = calculate_lshell(transpose([[goes_pos_gsm.X],[goes_pos_gsm.Y/earth_radius]])) endelse store_data, 'g'+probe+'_L_shell'+suffix, data={x: goes_pos_sm.X, y: goes_L_values} options, 'g'+probe+'_L_shell'+suffix,ytitle='L-shell' endif ; no errors up to this point error = 0 ;;============================================================================= ; Make the figure !p.background=255. !p.color=0. time_stamp,/off loadct2,43 !p.charsize=0.8 if uint(probe) ge 13 then begin part_plots = ['_magpd_dtc_uncor_omni_flux',$ ; MAGPD, line for each energy channel '_elec_uncor_comb_flux', $ ; EPEAD electrons, line for each energy channel '_maged_dtc_cor_omni_flux', $ ; MAGED, line for each energy channel '_prot_uncor_comb_flux'] ; EPEAD high energy protons, line for each energy channel] empty_title = ['B comp', 'B comp', 'MAGPD', 'EPEAD', 'MAGED', 'EPEAD', 'X-ray'] ; titles for empty panels endif else begin part_plots = ['_eps_tele_protons', $ ; EPS, lower energy protons '_eps_dome_electrons',$ ; EPS, integral electron flux '_eps_dome_protons'] ; EPS, higher energy protons empty_title = ['B comp', 'B comp', 'EPS', 'EPS', 'EPS', 'X-ray'] ; titles for empty panels endelse full_goes_plot = [prefix+[b_field_tvarname, $ ; B-field in SM coordnates '_delta_b_sm'+suffix, $ ; delta B components part_plots+suffix,$ '_xrs_avg'+suffix]] ; count the valid tplot variables in the GOES plot list num_valid_plots = 0 for plot_idx = 0l, n_elements(full_goes_plot)-1 do $ if tnames(full_goes_plot[plot_idx]) ne '' then num_valid_plots++ ; Only make figures when we have at least one GOES tplot variable if num_valid_plots ge 1 then begin ; Create empty panels if needed, so that ; we always have 8 panels for GOES13-15, and 7 panels for GOES10-12 for plot_idx = 0, n_elements(full_goes_plot)-1 do begin if tnames(full_goes_plot[plot_idx]) eq '' then begin store_data, full_goes_plot[plot_idx], data = {x: 0, y: 0} options, full_goes_plot[plot_idx], ytitle = empty_title[plot_idx] options, full_goes_plot[plot_idx], labels = 'No data' options, full_goes_plot[plot_idx], labflag = 1 endif endfor endif else begin dprint, dlevel = 1, 'No valid GOES plots for this interval.' endelse if undefined(gui_overplot) then begin if ~undefined(device) then begin tplot_options,'title','GOES-'+probe+' Overview ('+overviewdate+')' tplot, ['kyoto_thm_combined_ae', $ ; AE plot [full_goes_plot]] tplot, var_label=['g'+probe+'_pos_mlt', 'g'+probe+'_L_shell']+suffix endif else begin window, 1, xsize=window_xsize, ysize=window_ysize tplot_options,'title','GOES-'+probe+' Overview ('+overviewdate+')', window=1 tplot, ['kyoto_thm_combined_ae', $ ; AE plot [full_goes_plot]], window=1 tplot, var_label=['g'+probe+'_pos_mlt', 'g'+probe+'_L_shell']+suffix, window=1 endelse ;thm_gen_multipngplot, 'g'+probe+'_overview', overviewdate, directory = dir, /mkdir thm_gen_multipngplot, 'goes_goes'+probe, overviewdate, directory = dir, /mkdir endif else begin tplot_gui, /no_verify, /add_panel, import_only=import_only, ['kyoto_thm_combined_ae'+suffix, $ ; AE plot [full_goes_plot]], var_label=['g'+probe+'_pos_mlt', 'g'+probe+'_L_shell']+suffix endelse end