pro hsi_params_manual, d str = { $ name: '', $ class: '', $ units: '', $ default: '', $ range: '', $ level: '', $ purpose: '', $ more_doc: '' } k = -1 d = replicate(str, 2000) ; Control parameters for hsi_sohdata k = k + 1 d[k].name = 'soh_time_range' d[k].class = 'hsi_sohdata' d[k].units = 'sec' d[k].default = '' d[k].range = '' d[k].level = 'Standard d[k].purpose = 'Time range for the SOH data relative to obs_time_interval ' d[k].more_doc = '' k = k + 1 d[k].name = 'soh_label' d[k].class = 'hsi_sohdata' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'Standard' d[k].purpose = 'Pointer to a string array with the keywords wanted' d[k].more_doc = '' ; Control parameters for hsi_packet k = k + 1 d[k].name = 'file_type' d[k].class = 'hsi_packet' d[k].units = 'N/A' d[k].default = 'fits' d[k].range = 'fits, gse, itos, raw' d[k].level = 'Expert' d[k].purpose = 'File type ' d[k].more_doc = '' ; Control parameters for hsi_modul_pattern k = k + 1 d[k].name = 'imaging_strategy' d[k].class = 'hsi_modul_pattern' d[k].units = 'N/A' d[k].default = 'hsi_annsec_pattern' d[k].range = '' d[k].level = 'Expert' d[k].purpose = '' d[k].more_doc = '' ; Control parameters for hsi_xyoffset k = k + 1 d[k].name = 'xyoffset' d[k].class = 'hsi_xyoffset' d[k].units = 'arcsec' d[k].default = '[600.,200.]' d[k].range = '0 - 1000' d[k].level = 'Standard' d[k].purpose = 'Offset of map center from Sun center' d[k].more_doc = '>use_flare_xyoffset' k = k + 1 d[k].name = 'flare_xyoffset' d[k].class = 'hsi_xyoffset' d[k].units = 'arcsec' d[k].default = '[0.,0.]' d[k].range = '0 - 1000' d[k].level = 'Expert' d[k].purpose = 'Not used' d[k].more_doc = '' k = k + 1 d[k].name = 'use_flare_xyoffset' d[k].class = 'hsi_xyoffset' d[k].units = '' d[k].default = '1' d[k].range = '0 - 1' d[k].level = 'Standard' d[k].purpose = 'If set, use flare position from catalog for xyoffset.' d[k].more_doc = 'If use_flare_xyoffset is set, then xyoffset is automatically ' + $ 'set to the position in the flare catalog of the flare closest in time to ' + $ 'your requested time.

If you set xyoffset manually, then use_flare_xyoffset ' + $ 'is turned off. You must reset use_flare_xyoffset to 1 to return to ' + $ 'automatically retrieving the flare position.' ; Control parameters for hsi_calib_eventlist k = k + 1 d[k].name = 'use_auto_time_bin' d[k].class = 'hsi_calib_eventlist' d[k].units = 'N/A' d[k].default = '1' d[k].range = '0 - 1' d[k].level = 'Advanced d[k].purpose = 'If set, time binning is automatically set based on flare offset and ' + $ 'cbe_digital_quality parameter' d[k].more_doc = '' k = k + 1 d[k].name = 'cbe_digital_quality' d[k].class = 'hsi_calib_eventlist' d[k].units = 'N/A' d[k].default = '0.900000' d[k].range = '.1 - .99' d[k].level = 'Advanced' d[k].purpose = 'Used with flare offset to automatically determine size of time bins ' d[k].more_doc = '' k = k + 1 d[k].name = 'cbe_powers_of_two' d[k].class = 'hsi_calib_eventlist' d[k].units = 'N/A' d[k].default = '1' d[k].range = '0 - 1' d[k].level = 'Advanced' d[k].purpose = 'If set, forces multipliers on time_bin_min to be powers of 2' d[k].more_doc = '' k = k + 1 d[k].name = 'user_flux_var' d[k].class = 'hsi_calib_eventlist' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'User-provided smoothing profile' d[k].more_doc = '>use_flux_var' k = k + 1 d[k].name = 'use_flux_var' d[k].class = 'hsi_calib_eventlist' d[k].units = 'N/A' d[k].default = '0' d[k].range = '0 - 1' d[k].level = 'Advanced' d[k].purpose = 'If set, attempt to reconstruct flux variations unmarred by grid modulation' d[k].more_doc = 'If USE_FLUX_VAR is set, then hsi_calib_eventlist::DEMODULATE ' + $ 'attempts to construct a demodulated ' + $ 'profile of the true flux variation in the energy band, unmarred by grid modulation. ' + $ '

Used with SMOOTHING_TIME and USER_FLUX_VAR parameters.' + $ '

The SMOOTHING_TIME is in seconds, and is used with the IDL smooth function, as part ' + $ 'of this algorithm. The SMOOTHING_TIME should not be longer than the accumulation ' + $ 'interval. If you want to use your own smoothing profile, determine it on regular ' + $ 'bins, and load it into USER_FLUX_VAR. To subsequently disable that, and use' + $ "the algorithm's value, set USER_FLUX_VAR to a scalar value, preferably either 1 or 0." k = k + 1 d[k].name = 'smoothing_time' d[k].class = 'hsi_calib_eventlist' d[k].units = 'sec' d[k].default = '.5' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Smoothing time for flux variation profile. Used only if use_flux_var is set.' d[k].more_doc = '>user_flux_var' k = k + 1 d[k].name = 'srt_filename' d[k].class = 'hsi_calib_eventlist' d[k].units = 'N/A' d[k].default = 'srt_2*.dat' d[k].range = '' d[k].level = 'Expert' d[k].purpose = 'Subcollimator response table' d[k].more_doc = '' k = k + 1 d[k].name = 'eb_index' d[k].class = 'hsi_calib_eventlist' d[k].units = '' d[k].default = '0' d[k].range = '' d[k].level = 'Standard' d[k].purpose = 'Selects the energy bin to use.' d[k].more_doc = 'EB_INDEX is the index into the energy bin array (starting at 0) to use. ' + $ 'Used in conjunction with IM_ENERGY_BINNING. IM_ENERGY_BINNING defines energy ' + $ 'binning for making images. ' + $ '

ENERGY_BAND will be set to the energy edges actually used.' + $ '

The advantage of using IM_ENERGY_BINNING and EB_INDEX instead of ENERGY_BAND ' + $ 'is that it will be faster ' + $ 'if you are doing multiple energy bins for a time range, since ' + $ 'the binned eventlist will only be called once for a given time range. ' k = k + 1 d[k].name = 'energy_band' d[k].class = 'hsi_calib_eventlist' d[k].units = 'keV' d[k].default = '' d[k].range = '' d[k].level = 'Standard' d[k].purpose = 'Min and max energy value of the analysis interval' d[k].more_doc = 'The ENERGY_BAND parameter in ' + $ 'the hsi_calib_eventlist class is used for imaging. ' + $ '

ENERGY_BAND is no longer used at all for the lightcurve and spectrum objects. ' + $ 'For lightcurve and spectrum, the default value is [0.,0.] and should not be changed. ' + $ '

For lightcurve, use LTC_ENERGY_BAND to set energy bands.' + $ '

For spectrum, use SP_ENERGY_BINNING to set energy bands.' + $ '

For image, use ENERGY_BAND to set the min, max of the energies to use, but see ' + $ 'IM_ENERGY_BINNING and EB_INDEX for more options for setting energy bands ' + $ 'for images.' k = k + 1 d[k].name = 'use_time_window' d[k].class = 'hsi_calib_eventlist' d[k].units = '' d[k].default = '' d[k].range = '' d[k].level = 'Expert' d[k].purpose = '' d[k].more_doc = '' k = k + 1 d[k].name = 'use_phz_stacker' d[k].class = 'hsi_calib_eventlist' d[k].units = '' d[k].default = '0' d[k].range = '0 - 1' d[k].level = 'Standard' d[k].purpose = 'If set, use phase stacker' d[k].more_doc = 'Normal calibrated eventlist used in imaging has a 1-D array that has ' + $ 'phase, roll, counts, etc information for each time bin. The phase stacker ' + $ 'converts that to a 2-D array of integrated counts in roll angle bins vs phase bins. ' + $ 'There is a separate 2-D array for each detector. These are the parameters that ' + $ 'control phase stacker operations: ' + $ '

   use_phase_stacker =1 means enable the phase stacker ' + $ '

Controlling the number of phase bins: ' + $ '

   phz_n_phase_bins - Number of phase bins. Default is 12.' + $ '

Controlling the number of roll bins: ' +$ '

   phz_n_roll_bins_control - Array of 9 values specifying the ' + $ 'number of roll bins for each grid. Default is 0. which means automatically ' + $ 'calculate the number of roll bins. This is the recommended mode (automatic ' + $ 'calculation of number of roll bins) ' + $ '

   phz_n_roll_bins_min - Array of 9 values specifying the minimum ' + $ 'number of roll bins for each grid' + $ '

   phz_radius - Radius in arcsec of the extent of the source. ' + $ 'This is used to calculate the number of roll bins if phz_n_roll_bins_control is 0. ' + $ '

   phz_report_roll_bins = 1 means print the number of roll bins used ' + $ 'in IDL output log. ' + $ '

   phz_n_roll_bins_info - Info parameter containing number of roll ' + $ 'bins used for each detector.' k = k + 1 d[k].name = 'cb_coef' d[k].class = 'hsi_calib_eventlist' d[k].units = '' d[k].default = '' d[k].range = '' d[k].level = 'Expert' d[k].purpose = 'Not used. Coefficients that may be used down the road' d[k].more_doc = '' k = k + 1 d[k].name = 'user_hook' d[k].class = 'hsi_calib_eventlist' d[k].units = '' d[k].default = '0' d[k].range = '0 - 1' d[k].level = 'Expert' d[k].purpose = 'If set turn on process in user_hook' d[k].more_doc = '' k = k + 1 d[k].name = 'imaging_power_law' d[k].class = 'hsi_calib_eventlist' d[k].units = '' d[k].default = '4.00000' d[k].range = '' d[k].level = 'Expert' d[k].purpose = 'Power-law index used in hessi_grm' d[k].more_doc = 'Power-law index passed to hessi_grm used to compute ' + $ 'modulation and transmission of x-rays through the grid based on ' + $ 'the material properties weighted over the photon distribution.' k = k + 1 d[k].name = 'use_local_average' d[k].class = 'hsi_calib_eventlist' d[k].units = '' d[k].default = '0' d[k].range = '0 - 1' d[k].level = 'Expert' d[k].purpose = 'If set, subtract smoothed rate from count rate to reduce background effects' d[k].more_doc = 'USE_LOCAL_AVERAGE, LOCAL_AVERAGE_FREQUENCY, and AUTO_FREQUENCY ' + $ 'are used together.' + $ '

USE_LOCAL_AVERAGE - this turns on the strategy that compensates for ' + $ 'the time-variable background by averaging on a time scale shorter than the ' + $ 'observation but long with respect to a modulation cycle.' + $ '

LOCAL_AVERAGE_FREQUENCY - the values of the time width used in the ' + $ 'Gaussian convolution in units of frequency with respect to the rotation ' + $ 'period. It is a vector with dimensions of [9, 3] for each grid and harmonic. ' + $ 'So a value of 16 for a rotation period of 4.0 seconds is 0.25 seconds.' + $ '

AUTO_FREQUENCY - If set, use distance from spin axis to determine the ' + $ 'values for local_average_frequency.' k = k + 1 d[k].name = 'local_average_frequency' d[k].class = 'hsi_calib_eventlist' d[k].units = 'Freq. wrt rotation period' d[k].default = '16 (grids 1-8), 4 (grid 9)' d[k].range = '' d[k].level = 'Expert' d[k].purpose = 'Time width for local averaging, (9x3)- 9 detectors, 3 harmonics.' d[k].more_doc = '>use_local_average' k = k + 1 d[k].name = 'auto_frequency' d[k].class = 'hsi_calib_eventlist' d[k].units = '' d[k].default = '1' d[k].range = '0 - 1' d[k].level = 'Expert' d[k].purpose = 'If set, use distance from spin axis to determine averaging frequency' d[k].more_doc = '>use_local_average' k = k + 1 d[k].name = 'xyoffset' d[k].class = 'hsi_calib_eventlist' d[k].units = 'arcsec' d[k].default = '[600.,200.]' d[k].range = '0 - 1000' d[k].level = 'Standard' d[k].purpose = 'Offset of map from Sun center' d[k].more_doc = '>use_flare_xyoffset' ; Control parameters for hsi_monitor_rate k = k + 1 d[k].name = 'mr_time_range' d[k].class = 'hsi_monitor_rate' d[k].units = 'sec' d[k].default = '[0,0]' d[k].range = '0 - 100' d[k].level = 'Expert' d[k].purpose = 'Not used. Use obs_time_interval to specify time range.' d[k].more_doc = '' k = k + 1 d[k].name = 'no_102' d[k].class = 'hsi_monitor_rate' d[k].units = '' d[k].default = '0' d[k].range = '0 - 1' d[k].level = 'Expert' d[k].purpose = 'If set, read app id 152, otherwise 102' d[k].more_doc = '' k = k + 1 d[k].name = 'det_index_mask' d[k].class = 'hsi_monitor_rate' d[k].units = 'N/A' d[k].default = '[0,0,0,1,1,1,1,1,0]' d[k].range = '0 - 1' d[k].level = 'Standard' d[k].purpose = 'Not used' d[k].more_doc = '' ; Control parameters for hsi_modul_profile k = k + 1 d[k].name = 'vimage' d[k].class = 'hsi_modul_profile' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'Expert' d[k].purpose = '' d[k].more_doc = '' ; Control parameters for hsi_obs_summary k = k + 1 d[k].name = 'filename' d[k].class = 'hsi_obs_summary' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'Standard' d[k].purpose = 'File to retrieve data from.' d[k].more_doc = '>obs_time_interval' k = k + 1 d[k].name = 'obs_time_interval' d[k].class = 'hsi_obs_summary' d[k].units = 'ANYTIM' d[k].default = '' d[k].range = '' d[k].level = 'Standard' d[k].purpose = 'Absolute time interval to retrieve data for.' d[k].more_doc = '>obs_time_interval' k = k + 1 d[k].name = 'data_dir' d[k].class = 'hsi_obs_summary' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'Standard' d[k].purpose = "Use with filename param. Directory obs summ file is in." d[k].more_doc = '' ; Control parameters for hsi_vismod_pattern ; Control parameters for hsi_pixon k = k + 1 d[k].name = 'pixon_resolution' d[k].class = 'hsi_pixon' d[k].units = 'pixel' d[k].default = '1' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Minimum resolution to search' d[k].more_doc = '' k = k + 1 d[k].name = 'pixon_snr' d[k].class = 'hsi_pixon' d[k].units = 'N/A' d[k].default = '0' d[k].range = '0 - 1' d[k].level = 'Advanced' d[k].purpose = 'Bit map for controlling pixon options.' d[k].more_doc = 'If bit 0 is set (pixon_snr OR 1, or just set pixon_snr=1) weight ' + $ 'residuals by the signal-to-noise ratio.' + $ '

If bit 1 is set (pixon_snr OR 2), do a more complete but slower calculation ' + $ 'of the pixon map.' + $ '

If bit 2 is set (pixon_snr OR 4), attempt a background estimation from the residuals.' + $ '

If bit 3 is set (pixon_snr OR 8), use the fast algorithm (see pixon_variable_metric parameter).' k = k + 1 d[k].name = 'pixon_background_model' d[k].class = 'hsi_pixon' d[k].units = '' d[k].default = '' d[k].range = '' d[k].level = 'Expert' d[k].purpose = 'If set, attempt a background estimation from the residuals.' d[k].more_doc = 'If set, attempt a background estimation from the residuals.' + $ '

Setting bit 2 of pixon_snr (pixon_snr OR 4) has the same effect as setting ' + $ 'this keyword.' k = k + 1 d[k].name = 'pixon_variable_metric' d[k].class = 'hsi_pixon' d[k].units = '' d[k].default = '' d[k].range = '' d[k].level = 'Expert' d[k].purpose = 'If set, use the fast algorithm. Requires lots of memory.' d[k].more_doc = 'If set, use the fast algorithm. It is 2 to 4 times faster, but ' + $ 'requires a lot of memory. For a 64x64 image, you need ' + $ '300MB or more of memory. For a 128x128 image, you will probably need 3 to ' + $ '5 GB. The memory required scales as the fourth power of the linear image dimension.' + $ '

Setting bit 3 of pixon_snr (pixon_snr OR 8) has the same effect as setting ' + $ 'this keyword.' k = k + 1 d[k].name = 'pixon_full_pm_calc' d[k].class = 'hsi_pixon' d[k].units = '' d[k].default = '' d[k].range = '' d[k].level = 'Expert' d[k].purpose = 'If set, do a more complete but slower calculation of the pixon map.' d[k].more_doc = 'If set, do a more complete but slower calculation of the pixon map.' + $ '

Setting bit 1 of pixon_snr (pixon_snr OR 2) has the same effect as setting ' + $ 'this keyword.' k = k + 1 d[k].name = 'pixon_guess' d[k].class = 'hsi_pixon' d[k].units = 'N/A' d[k].default = 'Back projection image' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Image used as initial guess for pixon reconstruction' d[k].more_doc = '' k = k + 1 d[k].name = 'pixon_sizes' d[k].class = 'hsi_pixon' d[k].units = 'N/A' d[k].default = 'Powers of sqrt(2.0)' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Array of pixon resolutions to use. Choose ' + $ 'findgen(32)+1 for more robust but slower solution.' d[k].more_doc = '' k = k + 1 d[k].name = 'pixon_sensitivity' d[k].class = 'hsi_pixon' d[k].units = 'N/A' d[k].default = '0.0' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Sensitivity used in creating pixon map. 0. is most sensitive, > 3. is very insensitive.' d[k].more_doc = '' k = k + 1 d[k].name = 'pixon_noplot' d[k].class = 'hsi_pixon' d[k].units = 'N/A' d[k].default = '0' d[k].range = '0 - 1' d[k].level = 'Standard' d[k].purpose = 'If set, do not show intermediate plots' d[k].more_doc = '' k = k + 1 d[k].name = 'pixon_smpattwritedir' d[k].class = 'hsi_pixon' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'Standard' d[k].purpose = 'Directory to save new smoothed patterns in if they are calculated' d[k].more_doc = '' k = k + 1 d[k].name = 'pixon_progress_bar' d[k].class = 'hsi_pixon' d[k].units = 'N/A' d[k].default = '0' d[k].range = '0 - 1' d[k].level = 'Standard' d[k].purpose = 'If set, show progress bar with cancel option' d[k].more_doc = '' ; Control parameters for hsi_image_strategy k = k + 1 d[k].name = 'im_time_interval' d[k].class = 'hsi_image_strategy' d[k].units = 'ANYTIM' d[k].default = '' d[k].range = '' d[k].level = 'Standard' d[k].purpose = 'Time Interval(s) for images' d[k].more_doc = 'IM_TIME_INTERVAL and IM_TIME_BIN work together to define time bins for images.' + $ '

IM_TIME_INTERVAL can be set to edges of contiguous bins or to ' + $ 'start/end pairs of bins. For example: ' + $ "

o->set, im_time_interval='20-feb-02 11:06:' + ['00','04','08','10']" + $ "

o->set, im_time_interval='20-feb-02 11:06:' + " + $ "

[ ['00','04'], ['08','12'], ['16',20'] ]" + $ '

Or set IM_TIME_INTERVAL to a start/end time, and IM_TIME_BIN to the width in ' + $ 'seconds to divide IM_TIME_INTERVAL into, e.g.' + $ "

o->set, im_time_interval='20-feb-02 11:' + ['06:00','06:18']" + $ "

o->set, im_time_bin=4" k = k + 1 d[k].name = 'im_time_bin' d[k].class = 'hsi_image_strategy' d[k].units = 'sec' d[k].default = '0.00000000' d[k].range = '' d[k].level = 'Standard' d[k].purpose = 'Width of bins to divide im_time_intervals into' d[k].more_doc = '>im_time_interval' k = k + 1 d[k].name = 'im_time_ref' d[k].class = 'hsi_image_strategy' d[k].units = '' d[k].default = '0.00000000' d[k].range = '' d[k].level = 'Expert' d[k].purpose = 'Not used' d[k].more_doc = '' k = k + 1 d[k].name = 'im_allow_reprocess' d[k].class = 'hsi_image_strategy' d[k].units = '' d[k].default = '0' d[k].range = '0 - 1' d[k].level = 'Advanced' d[k].purpose = 'If set, unset input image FITS file, and allow reprocessing from raw' d[k].more_doc = '' k = k + 1 d[k].name = 'full_info' d[k].class = 'hsi_image_strategy' d[k].units = '' d[k].default = '0' d[k].range = '0 - 1' d[k].level = 'Standard' d[k].purpose = 'If set, write all info params in FITS file' d[k].more_doc = "To reduce the size of image FITS files, if this flag is " + $ "set to 0 (the default), then 'CLEAN' info arrays " + $ 'with more than 40 elements are not written in the image FITS file.' + $ 'If full_info is set to 1, then all info parameters are written in the FITS file.' ; Control parameters for hsi_image_file k = k + 1 d[k].name = 'use_all_info_params' d[k].class = 'hsi_image_file' d[k].units = '' d[k].default = '0' d[k].range = '0 - 1' d[k].level = 'Standard' d[k].purpose = 'If set, read all info parameters from image FITS file.' d[k].more_doc = 'For speed, only a few summary info parameters are read ' + $ 'an image FITS file. These summary info parameters are in a separate ' + $ 'single extension in the FITS file and include times, energy bands, and a few ' + $ 'other items for every image. The rest of the info parameters for ' + $ 'each image are in separate extensions, one for each image. If ' + $ 'USE_ALL_INFO_PARAMS is set, then all of these separate extensions ' + $ 'are read, and the info parameters in the object are filled in for ' + $ 'each image. This can take a while for large image cube files.' k = k + 1 d[k].name = 'im_input_fits' d[k].class = 'hsi_image_file' d[k].units = '' d[k].default = '' d[k].range = '' d[k].level = 'Standard' d[k].purpose = 'Input image FITS file name' d[k].more_doc = 'Name of a single- or multi-image FITS File.' + $ '

If the file is not in the current directory, include ' + $ 'the file path in this file name. ' + $ '

When IM_INPUT_FITS is set to a file, all of the control parameters ' + $ 'are set as they were when the file was made. You are not allowed to change ' + $ 'any control parameter. Info parameters are ' + $ 'filled in from the file (either all of the info parameters, or just a few depending ' + $ 'on the setting of USE_ALL_INFO_PARAMS).' + $ '

To resume using the raw files as input, set IM_INPUT_FITS to a blank, ' + $ 'or set the IM_ALLOW_REPROCESS parameter.' ; Control parameters for hsi_image_raw k = k + 1 d[k].name = 'im_time_interval' d[k].class = 'hsi_image_raw' d[k].units = 'ANYTIM' d[k].default = '' d[k].range = '' d[k].level = 'Standard' d[k].purpose = 'Time Interval(s) for images' d[k].more_doc = '>im_time_interval' k = k + 1 d[k].name = 'im_time_bin' d[k].class = 'hsi_image_raw' d[k].units = 'sec' d[k].default = '' d[k].range = '' d[k].level = 'Standard' d[k].purpose = 'Width of bins to divide im_time_intervals into' d[k].more_doc = '>im_time_interval' k = k + 1 d[k].name = 'im_time_ref' d[k].class = 'hsi_image_raw' d[k].units = '' d[k].default = '' d[k].range = '' d[k].level = 'Expert' d[k].purpose = '' d[k].more_doc = '' ; Control parameters for hsi_image_single k = k + 1 d[k].name = 'flare_id_nr' d[k].class = 'hsi_image_single' d[k].units = 'N/A' d[k].default = '0' d[k].range = '' d[k].level = 'Expert' d[k].purpose = 'Not used' d[k].more_doc = '' k = k + 1 d[k].name = 'image_algorithm' d[k].class = 'hsi_image_single' d[k].units = 'N/A' d[k].default = 'Bproj' d[k].range = 'BProj, Clean, MEM Sato, MEMVIS, Pixon, Forward Fit' d[k].level = 'Standard' d[k].purpose = 'Algorithm to use in image reconstruction' d[k].more_doc = '' k = k + 1 d[k].name = 'imaging_method' d[k].class = 'hsi_image_single' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'Expert' d[k].purpose = 'Not used' d[k].more_doc = '' ; Control parameters for hsi_psf k = k + 1 d[k].name = 'xy_pixel' d[k].class = 'hsi_psf' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'Expert' d[k].purpose = 'xy position of the pixel for which psf will be processed' d[k].more_doc = '' k = k + 1 d[k].name = 'psf_no_sum' d[k].class = 'hsi_psf' d[k].units = '' d[k].default = '0' d[k].range = '0 - 1' d[k].level = 'Expert' d[k].purpose = 'If set, get separate psf for each detector' d[k].more_doc = 'If set, the psfs are returned by ' + $ 'detectors. If not set, the psfs are summed over the chosen detectors. ' + $ 'This is not a true control parameter, it does not add to the general ' + $ 'list and must be set specifically for this class, with for instance' + $ "

ooo->get( class_name = 'hsi_psf' )" + $ 'ooo->set, /psf_no_sum' ; Control parameters for hsi_phz_stacker k = k + 1 d[k].name = 'phz_n_roll_bins_control' d[k].class = 'hsi_phz_stacker' d[k].units = '' d[k].default = '0' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Number of rolls bins for each grid' d[k].more_doc = '>use_phz_stacker' k = k + 1 d[k].name = 'phz_n_roll_bins_min' d[k].class = 'hsi_phz_stacker' d[k].units = '' d[k].default = '12' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Minimum number of roll bins for each grid' d[k].more_doc = '>use_phz_stacker' k = k + 1 d[k].name = 'phz_n_phase_bins' d[k].class = 'hsi_phz_stacker' d[k].units = '' d[k].default = '12' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Number of phase bins' d[k].more_doc = '>use_phz_stacker' k = k + 1 d[k].name = 'phz_report_roll_bins' d[k].class = 'hsi_phz_stacker' d[k].units = '' d[k].default = '0' d[k].range = '0 - 1' d[k].level = 'Advanced' d[k].purpose = 'If set, report number of roll bins used' d[k].more_doc = '>use_phz_stacker' k = k + 1 d[k].name = 'phz_radius' d[k].class = 'hsi_phz_stacker' d[k].units = 'arcsec' d[k].default = '60' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Radius of extent of source' d[k].more_doc = '>use_phz_stacker' ; Control parameters for hsi_forwardfit k = k + 1 d[k].name = 'ff_n_par' d[k].class = 'hsi_forwardfit' d[k].units = 'N/A' d[k].default = '4' d[k].range = '4,6,7' d[k].level = 'Standard' d[k].purpose = 'Number of free parameters per gaussian component' d[k].more_doc = 'Number of free parameters per gaussian component: ' + $ '4 for gaussian, 6 for elliptical, 7 for curved elliptical' k = k + 1 d[k].name = 'ff_n_gaussians' d[k].class = 'hsi_forwardfit' d[k].units = 'N/A' d[k].default = '1' d[k].range = '>1' d[k].level = 'Standard' d[k].purpose = 'Number of gaussian components' d[k].more_doc = '' k = k + 1 d[k].name = 'ff_nitmax' d[k].class = 'hsi_forwardfit' d[k].units = 'N/A' d[k].default = '10' d[k].range = '>3' d[k].level = 'Standard' d[k].purpose = 'Max number of iterations' d[k].more_doc = '' k = k + 1 d[k].name = 'ff_ftol' d[k].class = 'hsi_forwardfit' d[k].units = 'N/A' d[k].default = '0.0001' d[k].range = '>0' d[k].level = 'Standard' d[k].purpose = 'Tolerance for convergence' d[k].more_doc = '' k = k + 1 d[k].name = 'ff_min_sigma' d[k].class = 'hsi_forwardfit' d[k].units = 'N/A' d[k].default = '1.02' d[k].range = '>1' d[k].level = 'Standard' d[k].purpose = 'Minimum sigma in modulation for a detector to be included' d[k].more_doc = '' k = k + 1 d[k].name = 'ff_minsep' d[k].class = 'hsi_forwardfit' d[k].units = 'arcsec' d[k].default = '0.0' d[k].range = '>0' d[k].level = 'Standard' d[k].purpose = 'Minimum separation required between centroids of adjacent gaussians' d[k].more_doc = '' k = k + 1 d[k].name = 'ff_fixed_pixel' d[k].class = 'hsi_forwardfit' d[k].units = 'N/A' d[k].default = '1' d[k].range = '0 - 1' d[k].level = 'Advanced' d[k].purpose = 'If set, disable automated pixel adjustment' d[k].more_doc = '' k = k + 1 d[k].name = 'ff_pixelized' d[k].class = 'hsi_forwardfit' d[k].units = 'N/A' d[k].default = '1' d[k].range = '0 - 1' d[k].level = 'Advanced' d[k].purpose = 'Not implemented yet' d[k].more_doc = '' k = k + 1 d[k].name = 'ff_testplot' d[k].class = 'hsi_forwardfit' d[k].units = 'N/A' d[k].default = '1' d[k].range = '0 - 1' d[k].level = 'Standard' d[k].purpose = 'If set, show intermediate plots' d[k].more_doc = '' k = k + 1 d[k].name = 'ff_savefile' d[k].class = 'hsi_forwardfit' d[k].units = 'N/A' d[k].default = '0' d[k].range = '0 - 1' d[k].level = 'Standard' d[k].purpose = 'If set, save intermediate plots (PS file) and parameters (IDL save file)' d[k].more_doc = '' k = k + 1 d[k].name = 'ff_savename' d[k].class = 'hsi_forwardfit' d[k].units = '' d[k].default = 'hsi_forwardfit.sav' d[k].range = '' d[k].level = 'Standard' d[k].purpose = 'Name of file to write if ff_savefile is set' d[k].more_doc = '' k = k + 1 d[k].name = 'ff_progress_bar' d[k].class = 'hsi_forwardfit' d[k].units = 'N/A' d[k].default = '1' d[k].range = '0 - 1' d[k].level = 'Standard' d[k].purpose = 'If set, show progress bar with cancel option' d[k].more_doc = '' k = k + 1 d[k].name = 'ff_init_set' d[k].class = 'hsi_forwardfit' d[k].units = '' d[k].default = '0' d[k].range = '0 - 1' d[k].level = 'Advanced' d[k].purpose = 'Choose method for initializing parameters' d[k].more_doc = 'ff_init_set is used to choose the method for initializing parameters'+ $ '

(for example - the position of gaussian sources)' + $ '

0 - determined from maxima in backprojection maps' + $ '

1 - pre-estimated from previous run saved in file ff_last.sav' k = k + 1 d[k].name = 'ff_background_map' d[k].class = 'hsi_forwardfit' d[k].units = '' d[k].default = '0' d[k].range = '0 - 1' d[k].level = 'Standard' d[k].purpose = 'If set, forward-fit includes background of unmodulated sources' d[k].more_doc = '' k = k + 1 d[k].name = 'ff_background_det' d[k].class = 'hsi_forwardfit' d[k].units = '' d[k].default = '0' d[k].range = '0 - 1' d[k].level = 'Standard' d[k].purpose = 'If set, forward-fit includes detector background in time profiles' d[k].more_doc = '' ; Control parameters for hsi_bproj_strategy k = k + 1 d[k].name = 'flatfield' d[k].class = 'hsi_bproj_strategy' d[k].units = 'N/A' d[k].default = '1' d[k].range = '0 - 1' d[k].level = 'Standard' d[k].purpose = 'If set, enable flatfielding in BPROJ' d[k].more_doc = 'If set, removes the DC component of the back projection and ' + $ 'corrects for the pixel-to-pixel modulation variance' k = k + 1 d[k].name = 'vrate' d[k].class = 'hsi_bproj_strategy' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'Expert' d[k].purpose = '' d[k].more_doc = '' k = k + 1 d[k].name = 'use_rate' d[k].class = 'hsi_bproj_strategy' d[k].units = '' d[k].default = '0' d[k].range = '' d[k].level = 'Standard' d[k].purpose = 'If set, use rate-enabled back projection' d[k].more_doc = 'Set this flag to turn on rate-enabled ' + $ 'back projection. This is particularly critical to set when the ' + $ 'deadtimes become greater than 1/2. ' + $ 'For dirty maps made with USE_RATE set to 0 the true source positions ' + $ 'may have the lowest value in the field. Setting USE_RATE to 1 ' + $ 'corrects that and the source positions will again have the highest ' + $ 'values and appear brightest in the dirty map images. ' + $ 'For the CLEAN algorithm to work the source positions must have the ' + $ 'highest values.' k = k + 1 d[k].name = 'weight' d[k].class = 'hsi_bproj_strategy' d[k].units = 'N/A' d[k].default = '1' d[k].range = '' d[k].level = 'Expert' d[k].purpose = 'Not used.' d[k].more_doc = '' k = k + 1 d[k].name = 'natural_weighting' d[k].class = 'hsi_bproj_strategy' d[k].units = 'N/A' d[k].default = '0' d[k].range = '' d[k].level = 'Standard' d[k].purpose = 'If set, all collimators have equal weight in forming BPROJ map' d[k].more_doc = '>spatial_frequency_weight' k = k + 1 d[k].name = 'uniform_weighting' d[k].class = 'hsi_bproj_strategy' d[k].units = 'N/A' d[k].default = '1' d[k].range = '0 - 1' d[k].level = 'Standard' d[k].purpose = "If set, each collimator's weight in forming BPROJ map is 1/FWHM" d[k].more_doc = '>spatial_frequency_weight' k = k + 1 d[k].name = 'spatial_frequency_weight' d[k].class = 'hsi_bproj_strategy' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'Expert' d[k].purpose = 'Detector weighting for BPROJ map. Not settable by user' d[k].more_doc = 'The SPATIAL_FREQUENCY_WEIGHT parameter specifies the weighting applied to ' + $ 'each collimator when combining them to form a back projection image.' + $ 'SPATIAL_FREQUENCY_WEIGHT is not set directly by the user, but is controlled through ' + $ 'the following three parameters: ' + $ '

UNIFORM_WEIGHTING - If set, then weight each collimator by the inverse of its FWHM ' + $ '

NATURAL_WEIGHTING - If set, all collimators have equal weight ' + $ '

TAPER - (scalar) If nonzero, a factor to apply to SPATIAL_FREQUENCY_WEIGHT determined ' + $ 'as follows for each detector: ' + $ '
   exp ((-.89 * taper/FWHM)^2 < 50.)' + $ '

Note: UNIFORM_WEIGHTING preferentially weights the noisy high-frequency components. ' k = k + 1 d[k].name = 'taper' d[k].class = 'hsi_bproj_strategy' d[k].units = 'N/A' d[k].default = '0.0' d[k].range = '0. - 10.' d[k].level = 'Standard' d[k].purpose = 'Tapering factor for weighting grids in forming BPROJ map' d[k].more_doc = '>spatial_frequency_weight' ; Control parameters for hsi_annsec_pattern k = k + 1 d[k].name = 'factor_by' d[k].class = 'hsi_annsec_pattern' d[k].units = 'N/A' d[k].default = '1' d[k].range = '' d[k].level = 'Expert' d[k].purpose = '' d[k].more_doc = '' k = k + 1 d[k].name = 'modpat_skip' d[k].class = 'hsi_annsec_pattern' d[k].units = 'N/A' d[k].default = '1' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Controls the interpolation of modulation patterns' d[k].more_doc = 'Used to control how fine the interpolation of the modulation patterns is when ' + $ 'constructing the image. The default of 1 means use every modulation pattern available ' + $ '(best resolution). Increasing modpat_skip results in faster image reconstruction with some ' + $ 'loss of resolution in the image. Setting modpat_skip as high as 12 usually results in ' + $ 'an acceptable image.' k = k + 1 d[k].name = 'r0_offset' d[k].class = 'hsi_annsec_pattern' d[k].units = 'arcsec' d[k].default = '2560.' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Distance between annular sector axis and map center' d[k].more_doc = 'R0_offset is the distance in arcseconds between the annular sector axis (not nececessarily ' + $ 'the telescope axis or sun-center) and the map center. r0_offset must be greater than ' + $ 'the half-length of the FOV along the radial directions. The default is image_dim[0] * ' + $ 'pixel_size[0] * pixel_scale * 10.' ; Control parameters for hsi_modul_pattern_strategy k = k + 1 d[k].name = 'image_dim' d[k].class = 'hsi_modul_pattern_strategy' d[k].units = 'pixel' d[k].default = '[64,64]' d[k].range = '16 - 1024' d[k].level = 'Standard' d[k].purpose = 'Dimensions of image' d[k].more_doc = 'IMAGE_DIM defines the total number of pixels used in the x and y dimensions.' + $ '

PIXEL_SIZE defines the size in arcsec of each pixel in x and y. ' + $ '

The total size of the reconstructed image is IMAGE_DIM times PIXEL_SIZE.
' + $ 'Example: if image_dim=[32,64] and pixel_size=[4,4] then image will be 128 X 256 arcsec' k = k + 1 d[k].name = 'pixel_scale' d[k].class = 'hsi_modul_pattern_strategy' d[k].units = 'N/A' d[k].default = '1.0' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Scale factor for pixel_size' d[k].more_doc = '' k = k + 1 d[k].name = 'pixel_size' d[k].class = 'hsi_modul_pattern_strategy' d[k].units = 'arcsec' d[k].default = '[4,4]' d[k].range = '1 - 100' d[k].level = 'Standard' d[k].purpose = 'X,Y size of the image pixel' d[k].more_doc = '>image_dim' ; Control parameters for hsi_spectrogram k = k + 1 d[k].name = 'poisson' d[k].class = 'hsi_spectrogram' d[k].units = 'N/A' d[k].default = '0' d[k].range = '' d[k].level = 'Expert' d[k].purpose = 'Not used' d[k].more_doc = '' k = k + 1 d[k].name = 'seed' d[k].class = 'hsi_spectrogram' d[k].units = 'N/A' d[k].default = '0.0' d[k].range = '' d[k].level = 'Expert' d[k].purpose = 'Not used' d[k].more_doc = '' k = k + 1 d[k].name = 'coincidence_flag' d[k].class = 'hsi_spectrogram' d[k].units = 'N/A' d[k].default = '0' d[k].range = '0 -1' d[k].level = 'Advanced' d[k].purpose = 'If set, divide the spectrogram into coincident and anti-coincident events' d[k].more_doc = '' k = k + 1 d[k].name = 'other_a2d_index_mask' d[k].class = 'hsi_spectrogram' d[k].units = 'N/A' d[k].default = '' d[k].range = '0 - 1' d[k].level = 'Advanced' d[k].purpose = 'Set which other a2ds to return spectrum for' d[k].more_doc = '' k = k + 1 d[k].name = 'seg_index_mask' d[k].class = 'hsi_spectrogram' d[k].units = 'N/A' d[k].default = 'All 0' d[k].range = '0 - 1' d[k].level = 'Standard' d[k].purpose = 'Flags for selecting detector and segment' d[k].more_doc = '>det_index_mask' k = k + 1 d[k].name = 'rebin_method' d[k].class = 'hsi_spectrogram' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'Expert' d[k].purpose = 'Place-holder for spectral dependent rebinning' d[k].more_doc = '' k = k + 1 d[k].name = 'rebin_poisson_flag' d[k].class = 'hsi_spectrogram' d[k].units = 'N/A' d[k].default = '0' d[k].range = '' d[k].level = 'Expert' d[k].purpose = 'Place-holder for poisson option for rebinning' d[k].more_doc = '' k = k + 1 d[k].name = 'rebin_seed' d[k].class = 'hsi_spectrogram' d[k].units = 'N/A' d[k].default = '0' d[k].range = '' d[k].level = 'Expert' d[k].purpose = 'Place-holder for poisson seed option for rebinning' d[k].more_doc = '' k = k + 1 d[k].name = 'contig_energy_edges' d[k].class = 'hsi_spectrogram' d[k].units = 'N/A' d[k].default = '1' d[k].range = '0 - 1' d[k].level = 'Advanced' d[k].purpose = 'If set, force energy bins to be contiguous' d[k].more_doc = '' k = k + 1 d[k].name = 'livetime_enable' d[k].class = 'hsi_spectrogram' d[k].units = '' d[k].default = '1' d[k].range = '' d[k].level = 'Expert' d[k].purpose = 'default is to process and use livetime' d[k].more_doc = '' k = k + 1 d[k].name = 'align512' d[k].class = 'hsi_spectrogram' d[k].units = '' d[k].default = '1' d[k].range = '' d[k].level = 'Expert' d[k].purpose = 'Align time edges to 512 busec boundaries used with livetime' d[k].more_doc = '' k = k + 1 d[k].name = 'sum_flag' d[k].class = 'hsi_spectrogram' d[k].units = 'N/A' d[k].default = '1' d[k].range = '0 - 1' d[k].level = 'Standard' d[k].purpose = 'If set, sum the spectrograms over collimators' d[k].more_doc = 'If COINCIDENCE_FLAG is set, but SUM_COINCIDENCE is not set, ' + $ 'then SUM_FLAG will cause collimators to be summed, but coincidence and ' + $ 'and anti_coincidence spectrum will not be summed.' k = k + 1 d[k].name = 'sum_coincidence' d[k].class = 'hsi_spectrogram' d[k].units = '' d[k].default = '0' d[k].range = '' d[k].level = 'Expert' d[k].purpose = 'If set, sum the anti-coincidence and coincidence spectrum' d[k].more_doc = 'If set, the normal anti-coincidence spectrum will be added to ' + $ 'the coincidence spectrum. ' + $ '

NOTE: If COINCIDENCE_FLAG has not been set, setting SUM_COINCIDENCE ' + $ ' will set COINCIDENCE_FLAG and force ' + $ 'reprocessing the spectrogram (spectrum & lightcurve) on calls to GETDATA().' k = k + 1 d[k].name = 'sp_dp_cutoff' d[k].class = 'hsi_spectrogram' d[k].units = '' d[k].default = '0.000000' d[k].range = '' d[k].level = 'Expert' d[k].purpose = 'This functionality is disabled 17-nov-02' d[k].more_doc = '' k = k + 1 d[k].name = 'decimation_correct' d[k].class = 'hsi_spectrogram' d[k].units = '' d[k].default = '1' d[k].range = '0 - 1' d[k].level = 'Standard' d[k].purpose = 'If set, make front decimation correction' d[k].more_doc = 'The decimation_correct parameter enables decimation correction for front segments only.' + $ '

To enable rear segment decimation correction, set the rear_decimation_correct parameter to 1.' k = k + 1 d[k].name = 'rear_decimation_correct' d[k].class = 'hsi_spectrogram' d[k].units = '' d[k].default = '0' d[k].range = '0 -1' d[k].level = 'Standard' d[k].purpose = 'If set, make rear decimation correction' d[k].more_doc = '>decimation_correct' k = k + 1 d[k].name = 'decim_apar' d[k].class = 'hsi_spectrogram' d[k].units = '' d[k].default = '[1.,2.,1.,4.,400.,4.]' d[k].range = '' d[k].level = 'Expert' d[k].purpose = 'Spectral parameters (vth+bpow) for decimation factor interpolation' d[k].more_doc = '' k = k + 1 d[k].name = 'use_cull' d[k].class = 'hsi_spectrogram' d[k].units = '' d[k].default = '0' d[k].range = '0 - 1' d[k].level = 'Standard' d[k].purpose = 'If set, culling is enabled. Default is 1 for imaging, 0 for spectrum.' d[k].more_doc = 'USE_CULL and CULL_FRAC are used together. ' + $ '

When USE_CULL is set, any time bin with a datagap deadtime larger ' +$ 'than the fraction defined by CULL_FRAC will have its count(s) value(s) ' + $ 'set to 0 and its livetime set to 0. ' k = k + 1 d[k].name = 'cull_frac' d[k].class = 'hsi_spectrogram' d[k].units = '' d[k].default = '1.00000' d[k].range = '0. - 1.' d[k].level = 'Standard' d[k].purpose = 'Fraction for defining data gaps for culling' d[k].more_doc = '>use_cull' k = k + 1 d[k].name = 'use_total_count' d[k].class = 'hsi_spectrogram' d[k].units = '' d[k].default = '0' d[k].range = '' d[k].level = 'Expert' d[k].purpose = 'For developers only. Total_count is normally not used' d[k].more_doc = '' ; Control parameters for hsi_srm k = k + 1 d[k].name = 'ct_edges' d[k].class = 'hsi_srm' d[k].units = 'N/A' d[k].default = '2' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Define counts binning' d[k].more_doc = 'If a single number, refers to a particular standard ' + $ 'binning. If a string, will be taken ' + $ 'to refer to an input file. Otherwise will be a ' + $ '(N+1) vector containing boundaries for ' + $ 'N channels of the counts side of the ' + $ 'matrices (in that order). If any of the use_saved[]s ' + $ 'are defined, the binning of that will override ' + $ 'what is supplied.' k = k + 1 d[k].name = 'ph_edges' d[k].class = 'hsi_srm' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Define photon binning' d[k].more_doc = 'If a single number, refers to a particular standard ' + $ 'binning. If a string, will be taken ' + $ 'to refer to an input file. Otherwise will be a ' + $ '(N+1) vector containing boundaries for ' + $ 'N channels of the photon side of the ' + $ 'matrices (in that order). If any of the use_saved[]s ' + $ 'are defined, the binning of that will override ' + $ 'what is supplied.' k = k + 1 d[k].name = 'use_segment' d[k].class = 'hsi_srm' d[k].units = 'N/A' d[k].default = '[bytarr(9)+1,bytarr(9)]' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'If set, include the corresponding one of 18 detector segments' d[k].more_doc = '' k = k + 1 d[k].name = 'sep_dets' d[k].class = 'hsi_srm' d[k].units = 'N/A' d[k].default = '1' d[k].range = '0 - 1' d[k].level = 'Advanced' d[k].purpose = 'If set, return separate matrices for each detector used' d[k].more_doc = '' k = k + 1 d[k].name = 'sep_virds' d[k].class = 'hsi_srm' d[k].units = '' d[k].default = '1' d[k].range = '' d[k].level = 'Expert' d[k].purpose = 'If set, return separate matrices for each virtual detector' d[k].more_doc = 'If set, return separate matrices for each virtual detector ' + $ '(if /sep_dets set) or else separate sums of each virtual ' + $ 'detector type (front,rear,f/r coincidence, rear neighbor coincidence, and "other")' k = k + 1 d[k].name = 'astro' d[k].class = 'hsi_srm' d[k].units = 'N/A' d[k].default = '0' d[k].range = '0 - 1' d[k].level = 'Advanced' d[k].purpose = 'If set, treat as an astrophysical source (out-of-aperture)' d[k].more_doc = '' k = k + 1 d[k].name = 'dead_seg' d[k].class = 'hsi_srm' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'If set, consider the corresponding one of 18 detector segments to be passive' d[k].more_doc = '' k = k + 1 d[k].name = 'simplify' d[k].class = 'hsi_srm' d[k].units = 'N/A' d[k].default = 'bytarr(10)+2' d[k].range = '0 - 3' d[k].level = 'Advanced' d[k].purpose = 'Code to select submatrix terms to use' d[k].more_doc = 'bytarr(10) For each submatrix: ' + $ '

0 - Full calculation of diagonal, off diagonal terms ' + $ '

1 - Off diagonal terms are an approximation - for most submatrices ' + $ 'this will mean an average of all segments of the right kind ' + $ '(f,r,coinc.) instead of detector-specific results ' + $ '

2 - Diagonal terms only ' + $ '

3 - Diagonal terms only, and all = 1 (or zero if ' + $ 'it is a normally off-diagonal matrix)' k = k + 1 d[k].name = 'atten_state' d[k].class = 'hsi_srm' d[k].units = 'N/A' d[k].default = '1' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Attenuator setting' d[k].more_doc = '' k = k + 1 d[k].name = 'earth_position' d[k].class = 'hsi_srm' d[k].units = 'N/A' d[k].default = '180.' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Earth Position' d[k].more_doc = 'Earth position. If scalar, it is a spin-integrated zenith angle. ' + $ 'If an array of two values, the second is the azimuth angle (from spacecraft +x). ' + $ '

Default is azimuth averaged, zenith=180 (Earth behind).' k = k + 1 d[k].name = 'offax_position' d[k].class = 'hsi_srm' d[k].units = 'degrees' d[k].default = '.25' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Angle between source and imaging axis' d[k].more_doc = 'If scalar > 0, offax_position is a single radius angle in degrees ' + $ 'and azimuth average. If an array of two values, then zenith and azimuth angles. ' + $ '

This is used in the detector response calculations.' + $ '

Since the axis wobbles with time, offax_position in an average angle.' k = k + 1 d[k].name = 'compute_offax_position' d[k].class = 'hsi_srm' d[k].units = '' d[k].default = '1' d[k].range = '0 - 1' d[k].level = 'Expert' d[k].purpose = 'If set, compute offax_position.' d[k].more_doc = 'The offax_position is needed for a small correction to the SRM.' + $ '

An aspect solution is needed for computing offax_position. ' + $ 'If you are creating an SRM for a period during which there is no aspect ' + $ 'solution, you should turn off compute_offax_position so that the SRM creation ' + $ "doesn't abort. You can set offax_position manually (by retrieving it for a " + $ 'nearby time that does have an aspect solution and setting it in your object) ' + $ "if you think it's an important factor." k = k + 1 d[k].name = 'srm_xyoffset' d[k].class = 'hsi_srm' d[k].units = 'arcsec' d[k].default = '[0,0]' d[k].range = '0 - 1000' d[k].level = 'Expert' d[k].purpose = 'Flare position from Sun center' d[k].more_doc = '' k = k + 1 d[k].name = 'integrator' d[k].class = 'hsi_srm' d[k].units = 'N/A' d[k].default = '0.0' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Assumed power law index over whole spectrum' d[k].more_doc = 'Assumed power law index over whole spectrum for purposes of ' + $ 'splitting channels into "subchannels", calculating the response for each, ' + $ 'weighting by the assumed powerlaw, and summing back together.' k = k + 1 d[k].name = 'srm_time_wanted' d[k].class = 'hsi_srm' d[k].units = 'sec' d[k].default = '' d[k].range = '' d[k].level = 'Expert' d[k].purpose = 'Time of the observation, for purposes of time-varying ' + $ 'resolution (relative to standard time-zero)' d[k].more_doc = '' k = k + 1 d[k].name = 'srm_use_saved' d[k].class = 'hsi_srm' d[k].units = 'N/A' d[k].default = 'bytarr(10)' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'For each submatrix to be read from a saved file, set to the filename' d[k].more_doc = '' k = k + 1 d[k].name = 'srm_make_saved' d[k].class = 'hsi_srm' d[k].units = 'N/A' d[k].default = 'bytarr(10)' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'For each submatrix to be written to a saved file, set to the filename' d[k].more_doc = '' k = k + 1 d[k].name = 'srm_lambda' d[k].class = 'hsi_srm' d[k].units = '' d[k].default = '0.' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Characterizes radiation damage pulse shape tailing' d[k].more_doc = '' k = k + 1 d[k].name = 'print_subrms' d[k].class = 'hsi_srm' d[k].units = 'N/A' d[k].default = '0' d[k].range = '0 - 1' d[k].level = 'Advanced' d[k].purpose = 'If set, print the submatrices to the screen. Beware: may be large.' d[k].more_doc = '' k = k + 1 d[k].name = 'verbose' d[k].class = 'hsi_srm' d[k].units = 'N/A' d[k].default = '0' d[k].range = '0 -1' d[k].level = 'Advanced' d[k].purpose = 'If set, print periodic status updates' d[k].more_doc = '' k = k + 1 d[k].name = 'display_result' d[k].class = 'hsi_srm' d[k].units = 'N/A' d[k].default = '0' d[k].range = '0 - 1' d[k].level = 'Advanced' d[k].purpose = 'If set, plot the final matrices' d[k].more_doc = '' k = k + 1 d[k].name = 'pha_on_row' d[k].class = 'hsi_srm' d[k].units = 'N/A' d[k].default = '1' d[k].range = '0 - 1' d[k].level = 'Advanced' d[k].purpose = 'If set, units of srm are [count energy, photon energy, matrix number]. ' + $ 'If not set, count and photon indices reversed.' d[k].more_doc = '' k = k + 1 d[k].name = 'srm_input_units' d[k].class = 'hsi_srm' d[k].units = '' d[k].default = 'photons cm**(-2)' d[k].range = '' d[k].level = 'Expert' d[k].purpose = '' d[k].more_doc = '' k = k + 1 d[k].name = 'srm_units' d[k].class = 'hsi_srm' d[k].units = '' d[k].default = 'counts cm**(-2) kev**(-1)' d[k].range = '' d[k].level = 'Expert' d[k].purpose = '' d[k].more_doc = '' k = k + 1 d[k].name = 'srt_filename' d[k].class = 'hsi_srm' d[k].units = '' d[k].default = 'srt_*.dat' d[k].range = '' d[k].level = 'Expert' d[k].purpose = 'Subcollimator response table' d[k].more_doc = '' k = k + 1 d[k].name = 'apt_filename' d[k].class = 'hsi_srm' d[k].units = 'N/A' d[k].default = 'apt_*.txt' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = '' d[k].more_doc = '' ; Control parameters for hsi_simulation k = k + 1 d[k].name = 'sim_time_unit' d[k].class = 'hsi_simulation' d[k].units = 'binary microsec (2^-20 sec)' d[k].default = '1' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Time unit of the time tag in the eventlist.' d[k].more_doc = 'sim_time_unit is the time unit, in binary microseconds of the .time tag in ' + $ 'the eventlist structure. The default value is 1. It is a good idea to set both ' + $ 'sim_time_unit and time_unit to the same value for all simulations. Note that for ' + $ 'simulations longer than 2048.0 seconds, a larger value of sim_time_unit is ' + $ 'needed. If the time range passed in is lnger that 2048.0 seconds, then the ' + $ 'time_unit will be increased to 16. ' k = k + 1 d[k].name = 'sim_ut_ref' d[k].class = 'hsi_simulation' d[k].units = 'ANYTIM' d[k].default = '--' d[k].range = '--' d[k].level = 'Advanced' d[k].purpose = 'Reference time for simulation' d[k].more_doc = '' k = k + 1 d[k].name = 'sim_time_range' d[k].class = 'hsi_simulation' d[k].units = 'sec' d[k].default = '[0,4]' d[k].range = '--' d[k].level = 'Advanced' d[k].purpose = 'Time range of simulation, relative to sim_ut_ref' d[k].more_doc = 'time range, in seconds, relative to the reference time ' + $ 'sim_ut_ref for the simulation. Note that sim_time_range is not required if a ' + $ 'time array or time profile is passed in. ' k = k + 1 d[k].name = 'sim_use_spectrum' d[k].class = 'hsi_simulation' d[k].units = 'N/A' d[k].default = '0' d[k].range = '0 - 1' d[k].level = 'Advanced' d[k].purpose = 'If set, use an input spectrum or model spectrum to create simulations.' d[k].more_doc = 'If set, use an input spectrum or model spectrum to create simulations. ' + $ 'If set, must also set sim_spec_model and sim_spec_pars, or sim_photon_flux and sim_photon_energy ' + $ 'keywords. k = k + 1 d[k].name = 'sim_photons_per_coll' d[k].class = 'hsi_simulation' d[k].units = 'photons/sec/coll' d[k].default = '10000.' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Set overall flux level of simulated data' d[k].more_doc = 'sim_photons_per_coll, a floating point number, is used to control the overall ' + $ 'flux level of the simulated data. The units are in photons per second per ' + $ 'collimator incident on the spacecraft, with a default value of 10000. This is ' + $ 'dealt with differently in the new software; in previous versions, ' + $ 'sim_photons_per_coll referred to photon counts, after the energy response matrix ' + $ 'of the given detector was accounted for, now this number refers to the total ' + $ 'photon flux incident before taking the detector response into account. This ' + $ 'means that there are fewer counts registered in the new version for the same ' + $ 'value of sim_photons_per_coll. This is a scalar. This parameter is ignored if ' + $ 'sim_use_spectrum is set. Note that this is the total value of photons per ' + $ 'detector, if there are multple sources in the image ' + $ 'then the counts are divided up between the sources, ' + $ 'photons_per_source=sim_photons_per_coll*model.amplitude/total(model.amplitude) ' + $ '

If no control parameters are set, then the simulation will run using ' + $ 'sim_photons_per_coll = 1.0e4, as always. ' k = k + 1 d[k].name = 'sim_photon_flux' d[k].class = 'hsi_simulation' d[k].units = 'photons/cm^2/sec/keV' d[k].default = '' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Photon flux array, (nenergies, ntimes, nsources)' d[k].more_doc = '' k = k + 1 d[k].name = 'sim_photon_energy' d[k].class = 'hsi_simulation' d[k].units = 'keV' d[k].default = '' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'photon energies for the input photon flux' d[k].more_doc = '' k = k + 1 d[k].name = 'sim_photon_times' d[k].class = 'hsi_simulation' d[k].units = 'sec' d[k].default = '' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Time array (rel to sim_ut_ref) for the input photon flux' d[k].more_doc = '' k = k + 1 d[k].name = 'sim_photon_tprofile' d[k].class = 'hsi_simulation' d[k].units = '' d[k].default = '' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = "Time profile to use when shape of spectrum doesn't vary with time" d[k].more_doc = '' k = k + 1 d[k].name = 'sim_spec_pars' d[k].class = 'hsi_simulation' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Spectral parameters for the given model' d[k].more_doc = '' k = k + 1 d[k].name = 'sim_spec_model' d[k].class = 'hsi_simulation' d[k].units = 'N/A' d[k].default = 'f_bpow' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Spectral model' d[k].more_doc = '' k = k + 1 d[k].name = 'sim_interp_tprofile' d[k].class = 'hsi_simulation' d[k].units = 'N/A' d[k].default = '0' d[k].range = '0 - 1' d[k].level = 'Advanced' d[k].purpose = 'If set, interpolate time profile to smaller bins' d[k].more_doc = '' k = k + 1 d[k].name = 'sim_interp_dt' d[k].class = 'hsi_simulation' d[k].units = 'sec' d[k].default = '1/128' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Time interval for interpolating option (sim_interp_tprofile)' d[k].more_doc = '' k = k + 1 d[k].name = 'sim_just_background' d[k].class = 'hsi_simulation' d[k].units = 'N/A' d[k].default = '0' d[k].range = '0 - 1' d[k].level = 'Advanced' d[k].purpose = 'If set, only background counts are produced' d[k].more_doc = '' k = k + 1 d[k].name = 'sim_background' d[k].class = 'hsi_simulation' d[k].units = 'N/A' d[k].default = '0.0' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Factor to multiply background spectrum given by HESSI_BACKGROUND' d[k].more_doc = '' k = k + 1 d[k].name = 'sim_bkgd_time_unit' d[k].class = 'hsi_simulation' d[k].units = 'binary microsec (2^-20 sec)' d[k].default = '0' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Same meaning as sim_time_unit, for background' d[k].more_doc = '' k = k + 1 d[k].name = 'sim_bkgd_ut_ref' d[k].class = 'hsi_simulation' d[k].units = 'N/A' d[k].default = '0.0' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Same meaning as sim_ut_ref, for background' d[k].more_doc = '' k = k + 1 d[k].name = 'sim_bkgd_time_range' d[k].class = 'hsi_simulation' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Same meaning as sim_time_range, for background' d[k].more_doc = '' k = k + 1 d[k].name = 'sim_use_bkgd_spectrum' d[k].class = 'hsi_simulation' d[k].units = 'N/A' d[k].default = '0' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Same meaning as sim_use_spectrum, for background' d[k].more_doc = '' k = k + 1 d[k].name = 'sim_bkgd_photons_per_coll' d[k].class = 'hsi_simulation' d[k].units = 'N/A' d[k].default = '0.' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Same meaning as sim_photons_per_coll, for background' d[k].more_doc = '' k = k + 1 d[k].name = 'sim_bkgd_photon_flux' d[k].class = 'hsi_simulation' d[k].units = '' d[k].default = '' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Same meaning as sim_photon_flux, for background' d[k].more_doc = '' k = k + 1 d[k].name = 'sim_bkgd_photon_energy' d[k].class = 'hsi_simulation' d[k].units = '' d[k].default = '' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Same meaning as sim_photon_energy, for background' d[k].more_doc = '' k = k + 1 d[k].name = 'sim_bkgd_photon_times' d[k].class = 'hsi_simulation' d[k].units = '' d[k].default = '' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Same meaning as sim_photon_times, for background' d[k].more_doc = '' k = k + 1 d[k].name = 'sim_bkgd_tprofile' d[k].class = 'hsi_simulation' d[k].units = '' d[k].default = '' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Same meaning as sim_photon_tprofile, for background' d[k].more_doc = '' k = k + 1 d[k].name = 'sim_bkgd_spec_model' d[k].class = 'hsi_simulation' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Same meaning as sim_spec_model, for background' d[k].more_doc = '' k = k + 1 d[k].name = 'sim_bkgd_spec_pars' d[k].class = 'hsi_simulation' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Same meaning as sim_spec_pars, for background' d[k].more_doc = '' k = k + 1 d[k].name = 'sim_bkgd_interp_tprofile' d[k].class = 'hsi_simulation' d[k].units = 'N/A' d[k].default = '0' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Same meaning as sim_interp_tprofile, for background' d[k].more_doc = '' k = k + 1 d[k].name = 'sim_bkgd_interp_dt' d[k].class = 'hsi_simulation' d[k].units = 'N/A' d[k].default = '0.0' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Same meaning as sim_interp_dt, for background' d[k].more_doc = '' k = k + 1 d[k].name = 'sim_a2d_index_mask' d[k].class = 'hsi_simulation' d[k].units = 'N/A' d[k].default = 'All 1s' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Detector/segment selection' d[k].more_doc = 'sim_a2d_index_mask is a 27 element byte array that controls which ' + $ 'detector / segment data is used in the simulation. Set to 1 to use the ' + $ 'detector / segment. The first 9 elements refer to ' + $ 'the front segments of detectors 1-9, the next 9 elements of the array refer to ' + $ 'the low energy portion of the rear segments of detectors 1-9, and the last 9 ' + $ 'elements refer to the high energy portion of the rear segments for detectors ' + $ '1-9. ' k = k + 1 d[k].name = 'sim_pixel_size' d[k].class = 'hsi_simulation' d[k].units = 'arcsec' d[k].default = '1' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Pixel size when using a model image' d[k].more_doc = '' k = k + 1 d[k].name = 'sim_xyoffset' d[k].class = 'hsi_simulation' d[k].units = 'N/A' d[k].default = '[600,200]' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Center of the simulation box' d[k].more_doc = '' k = k + 1 d[k].name = 'sim_model' d[k].class = 'hsi_simulation' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Model for source for simulation' d[k].more_doc = 'sim_model can be used to pass in a structure (labelled gaussian_source_str) ' + $ 'which specifies a 2d Gaussian source. The Gaussian is specified by its ' + $ 'amplitude, x and y standard deviation (in arcseconds), its position relative to ' + $ 'the center of the image (in arcseconds), and its tilt angle. The amplitude ' + $ 'refers to the total photon flux from the source, not the peak value. The maximum ' + $ 'value of amplitude is 1, if you want two sources of equal strength, set both ' + $ 'amplitudes to 1.0. See the demo program sim_2gaussians.pro ' + $ 'in the hsi_sim_flare ' + $ 'document. The model also may be of the type {curved_gaussian_source_str}, ' + $ 'which has a curvature value in addition to the above parameters. The model can ' + $ 'also be given as an array with zeroes everywhere except at the location of point ' + $ 'sources. The non zero values should be specified in normalized units, with a ' + $ 'maximum of 1.0. The default model is a two-component gaussian source with equal ' + $ 'amplitudes, and xy standard deviations of 0.001 arcsec, to simulate point ' + $ 'sources. ' k = k + 1 d[k].name = 'sim_energy_band' d[k].class = 'hsi_simulation' d[k].units = 'keV' d[k].default = '[6.,100.]' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Energy band for simulation' d[k].more_doc = 'sim_energy_band is the energy band for the simulation, the default is [6.0, ' + $ '100.0] keV. If sim_energy_band has n+1 elements, then the simulation routines ' + $ 'are run n times, once for each energy band. This is the way to simulate large ' + $ 'energy ranges;e.g., if you need to do the range from 3 to 1000 keV, you can pass ' + $ 'in sim_energy_band=[3, 20, 50, 100, 200, 400, 600, 800, 1000] (or something ' + $ 'similar) so that the variation of the grid responses with energy can be ' + $ 'accounted for properly. ' k = k + 1 d[k].name = 'sim_gain_generation' d[k].class = 'hsi_simulation' d[k].units = 'N/A' d[k].default = '1' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Code for gain-generation. 0=old, 1=new, 2=on-orbit?' d[k].more_doc = '' k = k + 1 d[k].name = 'sim_gain_time_wanted' d[k].class = 'hsi_simulation' d[k].units = 'N/A' d[k].default = '0.0' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = '' d[k].more_doc = '' k = k + 1 d[k].name = 'sim_diagonal_srm' d[k].class = 'hsi_simulation' d[k].units = '' d[k].default = '0' d[k].range = 'o - 1' d[k].level = 'Advanced' d[k].purpose = 'If set, use diagonal detector response matrix for the simulation' d[k].more_doc = '' k = k + 1 d[k].name = 'sim_max_size' d[k].class = 'hsi_simulation' d[k].units = 'N/A' d[k].default = '128' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Default 1d max dimension' d[k].more_doc = '' k = k + 1 d[k].name = 'sim_saszero' d[k].class = 'hsi_simulation' d[k].units = 'N/A' d[k].default = '0' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'If set, aspect solution is constant with pointing=[0,0] and roll_period=4' d[k].more_doc = '' k = k + 1 d[k].name = 'sim_srt_filename' d[k].class = 'hsi_simulation' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Grid response data file to use. Default is latest version.' d[k].more_doc = '' k = k + 1 d[k].name = 'sim_seed' d[k].class = 'hsi_simulation' d[k].units = 'N/A' d[k].default = '0' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Seed for random number routines. Set it to reproduce results.' d[k].more_doc = '' k = k + 1 d[k].name = 'sim_nbuff' d[k].class = 'hsi_simulation' d[k].units = 'N/A' d[k].default = '5.e5' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Max number of photons processed at one time. Set higher if you have more memory.' d[k].more_doc = '' k = k + 1 d[k].name = 'sim_ssr_state' d[k].class = 'hsi_simulation' d[k].units = 'N/A' d[k].default = '0' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Measure of how full SSR memory is. 0=empty, 8=full' d[k].more_doc = '' k = k + 1 d[k].name = 'sim_atten_state' d[k].class = 'hsi_simulation' d[k].units = 'N/A' d[k].default = '1' d[k].range = '0,1,2,3' d[k].level = 'Advanced' d[k].purpose = 'Attenuator state. 0=no attenuators, 1=Thin in, thick out, ' + $ '2=thick in, thin out, 3=both in.' d[k].more_doc = '' k = k + 1 d[k].name = 'sim_quiet' d[k].class = 'hsi_simulation' d[k].units = 'N/A' d[k].default = '0' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'If set, supress diagnostic print statements in hsi_model_to_score' d[k].more_doc = '' ; Control parameters for hsi_eventlist_strategy k = k + 1 d[k].name = 'a2d_index_mask' d[k].class = 'hsi_eventlist_strategy' d[k].units = 'N/A' d[k].default = 'BytArr(27) + 1B' d[k].range = '0 - 1' d[k].level = 'Expert' d[k].purpose = 'Mask for the selection of a2d events' d[k].more_doc = '>det_index_mask' k = k + 1 d[k].name = 'energy_band' d[k].class = 'hsi_eventlist_strategy' d[k].units = 'keV' d[k].default = '[12,25]' d[k].range = '1 - 15000' d[k].level = 'Standard' d[k].purpose = 'Not used.' d[k].more_doc = 'The ENERGY_BAND parameter in ' + $ 'the hsi_calib_eventlist class is used for imaging. ' + $ '

ENERGY_BAND is no longer used at all for the lightcurve and spectrum objects. ' + $ 'For lightcurve and spectrum, the default value is [0.,0.] and should not be changed. ' + $ '

For lightcurve, use LTC_ENERGY_BAND to set energy bands.' + $ '

For spectrum, use SP_ENERGY_BINNING to set energy bands.' + $ '

For image, use ENERGY_BAND to set the min, max of the energies to use, but see ' + $ 'IM_ENERGY_BINNING and EB_INDEX for more options for setting energy bands ' + $ 'for images.' k = k + 1 d[k].name = 'gain_time_wanted' d[k].class = 'hsi_eventlist_strategy' d[k].units = 'N/A' d[k].default = '0.0' d[k].range = '' d[k].level = 'Expert' d[k].purpose = '' d[k].more_doc = '' k = k + 1 d[k].name = 'gain_generation' d[k].class = 'hsi_eventlist_strategy' d[k].units = 'N/A' d[k].default = '1000' d[k].range = '' d[k].level = 'Expert' d[k].purpose = '' d[k].more_doc = '' k = k + 1 d[k].name = 'time_range' d[k].class = 'hsi_eventlist_strategy' d[k].units = 'sec or ANYTIM' d[k].default = '[0,4]' d[k].range = '0 - ?' d[k].level = 'Standard' d[k].purpose = 'Time range to accumulate relative to ' + $ 'obs_time_interval, or absolute' d[k].more_doc = '>obs_time_interval' k = k + 1 d[k].name = 'number_of_half_rotations' d[k].class = 'hsi_eventlist_strategy' d[k].units = '' d[k].default = '0' d[k].range = '' d[k].level = 'Expert' d[k].purpose = 'Not used' d[k].more_doc = '' k = k + 1 d[k].name = 'time_unit' d[k].class = 'hsi_eventlist_strategy' d[k].units = 'binary microsec (2^-20 sec)' d[k].default = '1' d[k].range = '1 - 32' d[k].level = 'Expert' d[k].purpose = 'Time unit used in the eventlist time tags ' d[k].more_doc = 'Time unit must be 1 for coincidence. Defaults to 1 for spectrum '+ $ 'and image, 16 for lightcurve.' k = k + 1 d[k].name = 'no_livetime' d[k].class = 'hsi_eventlist_strategy' d[k].units = '' d[k].default = '0' d[k].range = '' d[k].level = 'Expert' d[k].purpose = '' d[k].more_doc = '' k = k + 1 d[k].name = 'ct_interpolate' d[k].class = 'hsi_eventlist_strategy' d[k].units = '' d[k].default = '0' d[k].range = '' d[k].level = 'Expert' d[k].purpose = '' d[k].more_doc = '' k = k + 1 d[k].name = 'deflt_atten_state' d[k].class = 'hsi_eventlist_strategy' d[k].units = '' d[k].default = '1' d[k].range = '' d[k].level = 'Expert' d[k].purpose = 'Use this value for attenuator state if can"t read it from packet.' + $ ' Used with sim data.' d[k].more_doc = '' k = k + 1 d[k].name = 'extend_time_range' d[k].class = 'hsi_eventlist_strategy' d[k].units = '' d[k].default = '2.0' d[k].range = '' d[k].level = 'Expert' d[k].purpose = 'Internal parameter - extends time to find dropouts' d[k].more_doc = '' k = k + 1 d[k].name = 'dp_cutoff' d[k].class = 'hsi_eventlist_strategy' d[k].units = '' d[k].default = '0.03' d[k].range = '' d[k].level = 'Expert' d[k].purpose = 'Dropout cutoff, min duration for dropout to be recognized' d[k].more_doc = '' k = k + 1 d[k].name = 'dp_enable' d[k].class = 'hsi_eventlist_strategy' d[k].units = '' d[k].default = '1' d[k].range = '' d[k].level = 'Expert' d[k].purpose = 'If set, handle dropouts' d[k].more_doc = '' k = k + 1 d[k].name = 'dp_extend' d[k].class = 'hsi_eventlist_strategy' d[k].units = 'sec' d[k].default = '0.' d[k].range = '' d[k].level = 'Expert' d[k].purpose = 'Extend datagap by this number of seconds' d[k].more_doc = '' k = k + 1 d[k].name = 'min_time_4_off' d[k].class = 'hsi_eventlist_strategy' d[k].units = '' d[k].default = '0.1' d[k].range = '' d[k].level = 'Expert' d[k].purpose = 'Minimum time without events to consider detectors off' d[k].more_doc = '' k = k + 1 d[k].name = 'dp_lld' d[k].class = 'hsi_eventlist_strategy' d[k].units = '' d[k].default = '51,49,52,54,52,44,50,46,40' d[k].range = '' d[k].level = 'Expert' d[k].purpose = 'Events at this channel or below don"t end datagap.' d[k].more_doc = '' k = k + 1 d[k].name = 'no_csa_dropout' d[k].class = 'hsi_eventlist_strategy' d[k].units = '' d[k].default = '0' d[k].range = '' d[k].level = 'Expert' d[k].purpose = 'If this is set, then dropoutlist compiled w/o using' d[k].more_doc = '' ; Control parameters for hsi_eventlist_file k = k + 1 d[k].name = 'ev_filename' d[k].class = 'hsi_eventlist_file' d[k].units = '' d[k].default = '' d[k].range = '' d[k].level = 'Standard' d[k].purpose = 'Name of eventlist file to use as input' d[k].more_doc = '' ; Control parameters for hsi_bproj ; Control parameters for hsi_aspect_solution k = k + 1 d[k].name = 'aspect_mode' d[k].class = 'hsi_aspect_solution' d[k].units = 'N/A' d[k].default = '0' d[k].range = '' d[k].level = 'Expert' d[k].purpose = 'Not used' d[k].more_doc = '' k = k + 1 d[k].name = 'aspect_cntl_level' d[k].class = 'hsi_aspect_solution' d[k].units = 'N/A' d[k].default = '0' d[k].range = '-2 - 10' d[k].level = 'Standard' d[k].purpose = 'Control amount of diagnostic information presented. Higher number = more.' d[k].more_doc = '' k = k + 1 d[k].name = 'aspect_sim' d[k].class = 'hsi_aspect_solution' d[k].units = 'N/A' d[k].default = '0' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'If set, use simulated aspect solution' d[k].more_doc = '' k = k + 1 d[k].name = 'aspect_time_range' d[k].class = 'hsi_aspect_solution' d[k].units = 'ANYTIM' d[k].default = '' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Time interval to calculate aspect for. If not set, defaults to obs_time_interval' d[k].more_doc = '' k = k + 1 d[k].name = 'as_interpol' d[k].class = 'hsi_aspect_solution' d[k].units = '' d[k].default = 'quad' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Set to quad to enable quadratic interpolation' d[k].more_doc = '' k = k + 1 d[k].name = 'as_no_extrapol' d[k].class = 'hsi_aspect_solution' d[k].units = '' d[k].default = '1' d[k].range = '0 - 1' d[k].level = 'Advanced' d[k].purpose = "If set, don't extrapolate aspect solution to times not covered." d[k].more_doc = '' k = k + 1 d[k].name = 'ras_time_extension' d[k].class = 'hsi_aspect_solution' d[k].units = 'sec' d[k].default = '[-1400,1400]' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Seconds to add to beginning/end of aspect time range' d[k].more_doc = '' k = k + 1 d[k].name = 'saszero' d[k].class = 'hsi_aspect_solution' d[k].units = 'N/A' d[k].default = '0' d[k].range = '0 - 1' d[k].level = 'Advanced' d[k].purpose = 'If set, assume a perfect aspect solution' d[k].more_doc = '' k = k + 1 d[k].name = 'as_spin_period' d[k].class = 'hsi_aspect_solution' d[k].units = 'sec' d[k].default = '4.0' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Spacecraft spin period for aspect calculations' d[k].more_doc = '' k = k + 1 d[k].name = 'as_roll_offset' d[k].class = 'hsi_aspect_solution' d[k].units = 'radian' d[k].default = '0.0' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = "If as_roll_solution='FIX', then this is roll angle at beginning of file.' d[k].more_doc = '' k = k + 1 d[k].name = 'as_roll_solution' d[k].class = 'hsi_aspect_solution' d[k].units = '' d[k].default = 'DBASE' d[k].range = '"DBASE","FIX, PMT, RAS"' d[k].level = 'Advanced' d[k].purpose = 'Method for determining roll angle' d[k].more_doc = 'Options are:' + $ '

DBASE - read roll solution from the provided database' + $ '

FIX - fixed spin period, use AS_SPIN_PERIOD and AS_ROLL_OFFSET' + $ '

PMT - use the PMTRAS to generate the roll solution' + $ '

RAS - use the CCD-RAS to generate the roll solution' k = k + 1 d[k].name = 'as_point_solution' d[k].class = 'hsi_aspect_solution' d[k].units = '' d[k].default = 'SAS' d[k].range = '"SAS, FSS"' d[k].level = 'Expert' d[k].purpose = '' d[k].more_doc = '' k = k + 1 d[k].name = 'pmtras_diagnostic' d[k].class = 'hsi_aspect_solution' d[k].units = '' d[k].default = '0' d[k].range = '' d[k].level = 'Expert' d[k].purpose = 'Controls diagnostic output from pmtras_analysis' d[k].more_doc = '' ; Control parameters for hsi_packet_file k = k + 1 d[k].name = 'check_bad_packet' d[k].class = 'hsi_packet_file' d[k].units = '' d[k].default = '0' d[k].range = '' d[k].level = 'Expert' d[k].purpose = '' d[k].more_doc = '' k = k + 1 d[k].name = 'adp_test' d[k].class = 'hsi_packet_file' d[k].units = 'N/A' d[k].default = '0' d[k].range = '0 - 1' d[k].level = 'Expert' d[k].purpose = 'If set, some selection tests are done for the aspect data ' + $ 'processor ' d[k].more_doc = '' k = k + 1 d[k].name = 'app_id' d[k].class = 'hsi_packet_file' d[k].units = 'N/A' d[k].default = 'All' d[k].range = '0 - 300' d[k].level = 'Expert' d[k].purpose = 'Only packets with this or these app id(s) are returned ' + $ '(scalar or vector)' d[k].more_doc = '' k = k + 1 d[k].name = 'obs_time_interval' d[k].class = 'hsi_packet_file' d[k].units = 'ANYTIM' d[k].default = '[0.d,0.d]' d[k].range = '' d[k].level = 'Standard' d[k].purpose = 'Absolute time interval to retrieve data for.' d[k].more_doc = 'obs_time_interval is the overall interval to retrieve data for. The ' + $ 'file containing the time will automatically be found and set into the filename parameter.' + $ '

Note: Absolute time format means a fully referenced time in any ANYTIM format, ' + $ "e.g. '3-mar-05 12:36:44'. If you supply an absolute time as a number, it is " + $ 'interpreted as seconds since 1-jan-1979 00:00 (and should be double precision).' + $ '

Specifying the time range and time bins is done differently for each object class.' + $ '

IMAGE OBJECT: No longer uses obs_time_interval (except for backward ' + $ 'compatibility). Use im_time_interval and im_time_bin. '+ $ '

SPECTRUM OBJECT: Use obs_time_interval, time_range, and/or sp_time_interval. ' + $ '

obs_time_interval - start/end of overall time interval in absolute time format ' + $ '

time_range - normally [0.,0.] meaning use all of obs_time_interval. Or, can ' + $ 'specify a start/end time in seconds relative to start of obs_time_interval to ' + $ 'use. Or can specify an absolute interval, which will supercede obs_time_interval.' + $ '

sp_time_interval - If scalar, then this is width of bins in seconds. If an ' + $ 'array, then defines the edges of the time bins, and must be in absolute time.' + $ '

LIGHTCURVE OBJECT: Use obs_time_interval, ltc_time_range, time_range, and/or ' + $ 'ltc_time_resolution. ' + $ '

obs_time_interval - start/end of overall time interval in absolute time format ' + $ '

ltc_time_range - (interchangeable with time_range) Normally [0.,0.] meaning use ' + $ 'all of obs_time_interval. Or, can specify a start/end time in seconds relative ' + $ 'to start of obs_time_interval to use. Or can specify an absolute interval, ' + $ 'which will supercede obs_time_interval' + $ '

ltc_time_resolution - width of time bins in seconds. ' + $ '

OBSERVING SUMMARY OR QUICKLOOK: Use obs_time_interval to specify overall time. ' + $ '

Example: ' + $ "
o -> set, obs_time_interval= ['20-feb-02 11:06', '20-feb-02 11:08']" + $ "
o -> set, time_range=[20,40]" k = k + 1 d[k].name = 'packet_time_range' d[k].class = 'hsi_packet_file' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'Expert' d[k].purpose = '' d[k].more_doc = '' k = k + 1 d[k].name = 'packet_per_bunch' d[k].class = 'hsi_packet_file' d[k].units = 'N/A' d[k].default = '5000' d[k].range = '' d[k].level = 'Expert' d[k].purpose = 'Number of packets to read in a each read operation' d[k].more_doc = '' k = k + 1 d[k].name = 'filename' d[k].class = 'hsi_packet_file' d[k].units = 'N/A' d[k].default = 'None' d[k].range = '' d[k].level = 'Standard' d[k].purpose = 'Name(s) of the level-0/telemetry data file(s)' d[k].more_doc = 'Specifies the filename containing the level-0 ' + $ 'data. The filename may be of type FITS, ITOS, GSE, SMEX or RAW. ' + $ '
Note: users should normally select data by setting a time interval ' + $ 'through the obs_time_interval and/or time_range parameters, which ' + $ 'will automatically set the correct filename.' ; Control parameters for hsi_lightcurve k = k + 1 d[k].name = 'ltc_energy_band' d[k].class = 'hsi_lightcurve' d[k].units = 'keV' d[k].default = '[3,15000]' d[k].range = '1 - 15000' d[k].level = 'Standard' d[k].purpose = 'Energy band(s) for the lightcurve' d[k].more_doc = '' k = k + 1 d[k].name = 'ltc_time_range' d[k].class = 'hsi_lightcurve' d[k].units = 'sec' d[k].default = '[0,0]' d[k].range = '0 - 1.e9' d[k].level = 'Standard' d[k].purpose = 'Time range for the light curve relative to obs_time_interval' d[k].more_doc = '>obs_time_interval' k = k + 1 d[k].name = 'ltc_time_resolution' d[k].class = 'hsi_lightcurve' d[k].units = 'sec' d[k].default = '.1' d[k].range = '.001 - ?' d[k].level = 'Standard' d[k].purpose = 'Lightcurve time bin size' d[k].more_doc = '>obs_time_interval' ; Control parameters for hsi_binned_eventlist k = k + 1 d[k].name = 'front_segment' d[k].class = 'hsi_binned_eventlist' d[k].units = 'N/A' d[k].default = '1' d[k].range = '0 - 1' d[k].level = 'Standard' d[k].purpose = 'If set, use detector front segments' d[k].more_doc = '' k = k + 1 d[k].name = 'rear_segment' d[k].class = 'hsi_binned_eventlist' d[k].units = 'N/A' d[k].default = '0' d[k].range = '0 - 1' d[k].level = 'Standard' d[k].purpose = 'If set, use detector rear segments' d[k].more_doc = '' k = k + 1 d[k].name = 'im_energy_binning' d[k].class = 'hsi_binned_eventlist' d[k].units = '' d[k].default = '' d[k].range = '' d[k].level = 'Standard' d[k].purpose = 'Defines energy binning. If scalar, interpret as code ' + $ 'for predefined energy bins, otherwise as energy edges' d[k].more_doc = 'Defines the energy binning for making images. ' + $ '

If this is a single value (scalar), the energy edges are read from ' + $ 'the corresponding ct_edges table in the ' + $ 'dbase. To see a description of the codes, look at the file ' + $ '$SSW/hessi/dbase/energy_binning.txt. ' + $ '

If it is a 1D array with M values, it ' + $ 'considers each value as the edge of a ' + $ '(contiguous) energy channel (therefore there ' + $ 'will be M-1 energy bins). ' + $ '

If it is a 2 x N ' + $ 'array, then each 2-element vector is a ' + $ 'separate energy channel, and there will be N energy bins. ' + $ '

IM_ENERGY_BINNING is used in conjunction with EB_INDEX. ' + $ 'EB_INDEX is the index into the energy bin array (starting at 0) to use. ' + $ 'ENERGY_BAND will be set to the energy edges actually used.' + $ '

The advantage of using IM_ENERGY_BINNING and EB_INDEX instead of ENERGY_BAND ' + $ 'is that it will be faster ' + $ 'if you are doing multiple energy bins for a time range, since ' + $ 'the binned eventlist will only be called once for a given time range. ' + $ '

NOTE: Using ENERGY_BAND still works for setting the energy band. However, ' + $ 'once you have set IM_ENERGY_BINNING in a given object, you can ' + $ 'no longer use ENERGY_BAND to set the energy edges.' k = k + 1 d[k].name = 'time_bin_def' d[k].class = 'hsi_binned_eventlist' d[k].units = 'N/A' d[k].default = '[1,1,2,4,8,8,16,32,64]' d[k].range = '1 - 2^6' d[k].level = 'Advanced' d[k].purpose = 'Factors multiplying time_bin_min to define detector-'+ $ 'dependent time bin size' d[k].more_doc = '' k = k + 1 d[k].name = 'time_bin_min' d[k].class = 'hsi_binned_eventlist' d[k].units = 'binary microsec (2^-20 sec)' d[k].default = '1024' d[k].range = '1 - ?' d[k].level = 'Advanced' d[k].purpose = 'Min time bin size (used with time_bin_def to set ' + $ 'time bins for each detector)' d[k].more_doc = '' k = k + 1 d[k].name = 'det_index_mask' d[k].class = 'hsi_binned_eventlist' d[k].units = 'N/A' d[k].default = '[0,0,0,1,1,1,1,1,0]' d[k].range = '0 - 1' d[k].level = 'Standard' d[k].purpose = 'Flags for selecting detectors' d[k].more_doc = 'Detector / segment selection is handled differently by the different objects.' + $ '

NOTE: A2D_INDEX_MASK is bytarr(27) which should be all 1s. The user should never ' + $ 'set this. Selection is done through the following parameters for each type of object:' + $ '

For Imaging: ' + $ '
DET_INDEX_MASK - bytarr(9,3) for the 9 detectors, 3 harmonics. Set to 1 to select. ' + $ '
FRONT - If set, then use front segment. ' + $ '
REAR - If set, then use rear segment. ' + $ '

For Spectrum and Lightcurve: ' + $ '
SEG_INDEX_MASK - bytarr(18) first 9 are for front segments of the 9 detectors, second ' + $ '9 are for rear segments.' + $ '
DET_INDEX_MASK - bytarr(9) for the 9 detectors. If set, selects front and rear segments' + $ '
NOTE: Use SEG_INDEX_MASK or DET_INDEX_MASK, not both' ; Control parameters for hsi_spectrum k = k + 1 d[k].name = 'sp_chan_binning' d[k].class = 'hsi_spectrum' d[k].units = 'N/A' d[k].default = '0' d[k].range = '0 - 8192' d[k].level = 'Standard' d[k].purpose = 'If non-zero, energy bins are on channel boundaries. Scalar grouping factor. ' d[k].more_doc = 'Defines the channel binning. If > 0, then binning is on natural ' + $ 'energy boundaries (PHA binning), i.e. the channels are the numbers encoded in ' + $ 'the telemetry for each event. SP_CHAN_BINNING is a grouping factor, so ' + $ 'if it is set to N, then each group of N ' + $ 'PHA channels is summed to obtain the resultant spectrum.

Setting ' + $ 'SP_CHAN_BINNING to 1 returns a spectrum of 8192 channels; setting it to 4 ' + $ 'returns 2048 grouped channels. ' + $ '

If SP_CHAN_BINNING is 0, then SP_ENERGY_BINNING parameter controls energy binning.' k = k + 1 d[k].name = 'sp_chan_min' d[k].class = 'hsi_spectrum' d[k].units = 'N/A' d[k].default = '0' d[k].range = '' d[k].level = 'Expert' d[k].purpose = '' d[k].more_doc = '' k = k + 1 d[k].name = 'sp_chan_max' d[k].class = 'hsi_spectrum' d[k].units = 'N/A' d[k].default = '0' d[k].range = '' d[k].level = 'Expert' d[k].purpose = '' d[k].more_doc = '' k = k + 1 d[k].name = 'sp_energy_binning' d[k].class = 'hsi_spectrum' d[k].units = 'N/A' d[k].default = '7' d[k].range = '0 - ?' d[k].level = 'Standard' d[k].purpose = 'Defines energy binning. If scalar, interpret as code ' + $ 'for predefined energy bins, otherwise as energy edges' d[k].more_doc = 'Defines the energy binning of the spectra. ' + $ '

If this is a single value (scalar), the energy edges are read from ' + $ 'the corresponding ct_edges table in the ' + $ 'dbase. To see a description of the codes, look at the file ' + $ '$SSW/hessi/dbase/energy_binning.txt. ' + $ '

If it is a 1D array with M values, it ' + $ 'considers each value as the edge of a ' + $ '(contiguous) energy channel (therefore there ' + $ 'will be M-1 energy bins). ' + $ '

If it is a 2 x N ' + $ 'array, then each 2-element vector is a ' + $ 'separate energy channel, and the resulting ' + $ 'spectrum has N energy bins.' + $ '

If sp_chan_binning is not 0, then sp_chan_binning takes precedence ' + $ 'over sp_energy_binning.' k = k + 1 d[k].name = 'sp_bin_time_unit' d[k].class = 'hsi_spectrum' d[k].units = 'N/A' d[k].default = '0' d[k].range = '' d[k].level = 'Expert' d[k].purpose = 'If set, sp_time_interval in l64 word as time unit.' d[k].more_doc = '' k = k + 1 d[k].name = 'sp_time_interval' d[k].class = 'hsi_spectrum' d[k].units = 'sec' d[k].default = '60' d[k].range = '0 - ?' d[k].level = 'Standard' d[k].purpose = 'Defines time interval(s) for spectra. If scalar, interpret as width, ' + $ 'otherwise as time bin edges' d[k].more_doc = '>obs_time_interval' k = k + 1 d[k].name = 'sp_semi_calibrated' d[k].class = 'hsi_spectrum' d[k].units = 'N/A' d[k].default = '0' d[k].range = '0 - 1' d[k].level = 'Standard' d[k].purpose = 'If set, calibrates the count rate spectrum using only' + $ ' the diagonal elements of the response matrix' d[k].more_doc = '' k = k + 1 d[k].name = 'sp_data_structure' d[k].class = 'hsi_spectrum' d[k].units = 'N/A' d[k].default = '0' d[k].range = '0 - 1' d[k].level = 'Standard' d[k].purpose = 'If set, then GETDATA returns a structure with data ' + $ ' (counts, rate, or flux) and errors.' d[k].more_doc = '' k = k + 1 d[k].name = 'sp_data_unit' d[k].class = 'hsi_spectrum' d[k].units = 'N/A' d[k].default = 'Counts' d[k].range = 'Counts, Rate, Flux' d[k].level = 'Standard' d[k].purpose = 'Type of data to return in spectrum - counts, counts/sec, ' + $ 'or counts/sec/cm^2/keV' d[k].more_doc = '' k = k + 1 d[k].name = 'sp_error_out' d[k].class = 'hsi_spectrum' d[k].units = 'N/A' d[k].default = '0' d[k].range = '' d[k].level = 'Expert' d[k].purpose = '' d[k].more_doc = '' k = k + 1 d[k].name = 'det_index_mask' d[k].class = 'hsi_spectrum' d[k].units = 'N/A' d[k].default = 'All 0' d[k].range = '0 - 1' d[k].level = 'Standard' d[k].purpose = 'Flags for selecting detectors' d[k].more_doc = '>det_index_mask' k = k + 1 d[k].name = 'flare_start_time' d[k].class = 'hsi_spectrum' d[k].units = '' d[k].default = '0.00000000' d[k].range = '' d[k].level = 'Expert' d[k].purpose = 'Include flare start and end time to exclude from corrections' d[k].more_doc = '' k = k + 1 d[k].name = 'flare_end_time' d[k].class = 'hsi_spectrum' d[k].units = '' d[k].default = '0.00000000' d[k].range = '' d[k].level = 'Expert' d[k].purpose = 'for attenuator and grid trans' d[k].more_doc = '' k = k + 1 d[k].name = 'flare_bck_time' d[k].class = 'hsi_spectrum' d[k].units = '' d[k].default = '' d[k].range = '' d[k].level = 'Expert' d[k].purpose = '' d[k].more_doc = '' k = k + 1 d[k].name = 'pileup_modamp' d[k].class = 'hsi_spectrum' d[k].units = '' d[k].default = '' d[k].range = '' d[k].level = 'Expert' d[k].purpose = 'Correction factor for pileup' d[k].more_doc = 'Average modulation amplitude during the ' + $ 'accumulation. When high, the pileup correction ' + $ 'is more severe than would be expected for that' + $ 'average livetime.' k = k + 1 d[k].name = 'pileup_threshold' d[k].class = 'hsi_spectrum' d[k].units = '' d[k].default = '0.950000' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Livetime fraction threshold for pileup correction' d[k].more_doc = 'Time intervals with livetime fraction greater than the ' + $ 'pileup_threshold will have pileup correction computed (if pileup_correct is set). ' k = k + 1 d[k].name = 'pileup_correct' d[k].class = 'hsi_spectrum' d[k].units = '' d[k].default = '0' d[k].range = '0 - 1' d[k].level = 'Standard' d[k].purpose = 'If set, make pileup correction' d[k].more_doc = '' k = k + 1 d[k].name = 'pileup_tweak' d[k].class = 'hsi_spectrum' d[k].units = '' d[k].default = '1.00000' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Controls intensity of pileup correction' d[k].more_doc = 'Controls intensity of pileup correction, .9 means less ' + $ 'correction, 1.1 means more correction, but can be any number.' k = k + 1 d[k].name = 'xyoffset' d[k].class = 'hsi_spectrum' d[k].units = 'arcsec' d[k].default = '[600,200]' d[k].range = '0 - 1000' d[k].level = 'Standard' d[k].purpose = 'Offset of source from Sun center' d[k].more_doc = '' ; Control parameters for hsi_qlook k = k + 1 d[k].name = 'class_name' d[k].class = 'hsi_qlook' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'Standard' d[k].purpose = 'Class name to retrieve data for.' d[k].more_doc = '' k = k + 1 d[k].name = 'version' d[k].class = 'hsi_qlook' d[k].units = 'N/A' d[k].default = '0' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'version number' d[k].more_doc = '' k = k + 1 d[k].name = 'id_string' d[k].class = 'hsi_qlook' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'An identifying string' d[k].more_doc = '' k = k + 1 d[k].name = 'vers_info' d[k].class = 'hsi_qlook' d[k].units = 'N/A' d[k].default = '0' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Version number for info' d[k].more_doc = '' k = k + 1 d[k].name = 'vers_data' d[k].class = 'hsi_qlook' d[k].units = 'N/A' d[k].default = '0' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Version number for data' d[k].more_doc = '' k = k + 1 d[k].name = 'obs_time_interval' d[k].class = 'hsi_qlook' d[k].units = 'ANYTIM' d[k].default = '' d[k].range = '' d[k].level = 'Standard' d[k].purpose = 'Absolute time interval to retrieve data for.' d[k].more_doc = '>obs_time_interval' k = k + 1 d[k].name = 'filename' d[k].class = 'hsi_qlook' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'Standard' d[k].purpose = 'File (including path) to retrieve data from. Ignored if obs_time_interval is set.' d[k].more_doc = '' k = k + 1 d[k].name = 'energy_band' d[k].class = 'hsi_qlook' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'Expert' d[k].purpose = '' d[k].more_doc = '' k = k + 1 d[k].name = 'time_range' d[k].class = 'hsi_qlook' d[k].units = 'ANYTIM' d[k].default = '' d[k].range = '' d[k].level = 'Standard' d[k].purpose = 'Absolute time range of data to retrieve. ' + $ 'Used only if filename is set.' d[k].more_doc = '' k = k + 1 d[k].name = 'nodata' d[k].class = 'hsi_qlook' d[k].units = 'N/A' d[k].default = '0' d[k].range = '' d[k].level = 'Expert' d[k].purpose = '' d[k].more_doc = '' k = k + 1 d[k].name = 'read_from_archive' d[k].class = 'hsi_qlook' d[k].units = '' d[k].default = '0' d[k].range = '' d[k].level = 'Expert' d[k].purpose = '' d[k].more_doc = '' ; Control parameters for hsi_eventlist_file_sim k = k + 1 d[k].name = 'obs_time_interval' d[k].class = 'hsi_eventlist_file_sim' d[k].units = '' d[k].default = '' d[k].range = '' d[k].level = 'Expert' d[k].purpose = '' d[k].more_doc = '' ; Control parameters for hsi_memvis k = k + 1 d[k].name = 'vis_show_image' d[k].class = 'hsi_memvis' d[k].units = 'N/A' d[k].default = '1' d[k].range = '0 - 1' d[k].level = 'Standard' d[k].purpose = 'If set, show intermediate images' d[k].more_doc = '' k = k + 1 d[k].name = 'vis_chi_limit' d[k].class = 'hsi_memvis' d[k].units = 'N/A' d[k].default = '1.1' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Chi-squared value at which image reconstruction ' + $ 'will stop' d[k].more_doc = '' k = k + 1 d[k].name = 'vis_lambda_max' d[k].class = 'hsi_memvis' d[k].units = 'N/A' d[k].default = '20' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Max value of lambda allowed ' d[k].more_doc = 'During image reconstruction, each lambda iteration corresponds to a weakening of the ' + $ 'smoothness constraint, allowing a better fit (smaller chi-square) to the data. This parameter sets the ' + $ 'maximum value that the lambda iteration can reach at which point mem_vis will exit and ' + $ 'return the last image. Note that the lambda iteration step is not fixed, it accelerates as the ' + $ 'image reconstruction progresses.' k = k + 1 d[k].name = 'vis_no_chi2' d[k].class = 'hsi_memvis' d[k].units = 'N/A' d[k].default = '0' d[k].range = '0 - 1' d[k].level = 'Advanced' d[k].purpose = 'If set, mem_vis iterates to vis_lambda_max, and ignores ' + $ 'vis_chi_limit' d[k].more_doc = '' k = k + 1 d[k].name = 'vis_iter_max' d[k].class = 'hsi_memvis' d[k].units = 'N/A' d[k].default = '150' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Max number of iterations for a given lambda' d[k].more_doc = '' k = k + 1 d[k].name = 'vis_delta_max' d[k].class = 'hsi_memvis' d[k].units = 'N/A' d[k].default = '.001' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Max value of delta for a switch to new lambda' d[k].more_doc = '' k = k + 1 d[k].name = 'vis_itgain' d[k].class = 'hsi_memvis' d[k].units = 'N/A' d[k].default = '.3' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Initial value of the iteration gain' d[k].more_doc = '' k = k + 1 d[k].name = 'vis_lnorm' d[k].class = 'hsi_memvis' d[k].units = 'N/A' d[k].default = '1.e-5' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Initial strength of the entropy constraint' d[k].more_doc = 'Controls the initial strength of the entropy constraint. A small value corresponds to a very ' + $ 'strong smoothness constraint, and a large value corresponds to a very weak constraint. A ' + $ 'large value allows for very fast reconstruction of an image of point sources, but will result in ' + $ 'very poor broken up images if the sources are extended. The default is currently 1e-5, which ' + $ 'is a low value allowing for safe, but slow, reconstruction of most sources.' k = k + 1 d[k].name = 'vis_init_btot' d[k].class = 'hsi_memvis' d[k].units = 'N/A' d[k].default = '0' d[k].range = '0 - 1' d[k].level = 'Advanced' d[k].purpose = 'If set, initialize the value of btot' d[k].more_doc = '' k = k + 1 d[k].name = 'vis_progress_bar' d[k].class = 'hsi_memvis' d[k].units = 'N/A' d[k].default = '1' d[k].range = '0 - 1' d[k].level = 'Standard' d[k].purpose = 'If set, display progress bar with cancel option' d[k].more_doc = '' k = k + 1 d[k].name = 'vis_sys_err' d[k].class = 'hsi_memvis' d[k].units = 'N/A' d[k].default = '.01' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Systematic error term' d[k].more_doc = '' ; Control parameters for hsi_mem_sato k = k + 1 d[k].name = 'sato_show_image' d[k].class = 'hsi_mem_sato' d[k].units = 'N/A' d[k].default = '1' d[k].range = '0 - 1' d[k].level = 'Standard' d[k].purpose = 'If set, show intermediate images' d[k].more_doc = '' k = k + 1 d[k].name = 'sato_chi_limit' d[k].class = 'hsi_mem_sato' d[k].units = 'N/A' d[k].default = '1.03' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Chi-squared value at which image reconstruction will stop' d[k].more_doc = '' k = k + 1 d[k].name = 'sato_lambda_max' d[k].class = 'hsi_mem_sato' d[k].units = 'N/A' d[k].default = '20' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Max value of lambda allowed' d[k].more_doc = '' k = k + 1 d[k].name = 'sato_no_chi2' d[k].class = 'hsi_mem_sato' d[k].units = 'N/A' d[k].default = '0' d[k].range = '0 - 1' d[k].level = 'Expert' d[k].purpose = 'If set, do not used the chi^2 to stop' d[k].more_doc = '' k = k + 1 d[k].name = 'sato_iter_max' d[k].class = 'hsi_mem_sato' d[k].units = 'N/A' d[k].default = '30' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Max number of iterations for a given lambda' d[k].more_doc = '' k = k + 1 d[k].name = 'sato_delta_max' d[k].class = 'hsi_mem_sato' d[k].units = 'N/A' d[k].default = '.03' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Max value of delta for a switch to new lambda' d[k].more_doc = '' k = k + 1 d[k].name = 'sato_itgain' d[k].class = 'hsi_mem_sato' d[k].units = 'N/A' d[k].default = '.3' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Initial value of the iteration gain' d[k].more_doc = '' k = k + 1 d[k].name = 'sato_lnorm' d[k].class = 'hsi_mem_sato' d[k].units = 'N/A' d[k].default = '.1' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Normalization factor for lambda' d[k].more_doc = '' k = k + 1 d[k].name = 'sato_init_btot' d[k].class = 'hsi_mem_sato' d[k].units = 'N/A' d[k].default = '0' d[k].range = '0 - 1' d[k].level = 'Advanced' d[k].purpose = 'If 1 initialize the value of btot' d[k].more_doc = '' k = k + 1 d[k].name = 'sato_progress_bar' d[k].class = 'hsi_mem_sato' d[k].units = 'N/A' d[k].default = '1' d[k].range = '0 - 1' d[k].level = 'Standard' d[k].purpose = 'If set, display progress bar with cancel button' d[k].more_doc = '' k = k + 1 d[k].name = 'sato_sys_err' d[k].class = 'hsi_mem_sato' d[k].units = 'N/A' d[k].default = '.01' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Systematic error term' d[k].more_doc = '' ; Control parameters for hsi_clean k = k + 1 d[k].name = 'clean_niter' d[k].class = 'hsi_clean' d[k].units = 'N/A' d[k].default = '33' d[k].range = '1 - ?' d[k].level = 'Standard' d[k].purpose = 'Max number of iterations' d[k].more_doc = '' k = k + 1 d[k].name = 'clean_more_iter' d[k].class = 'hsi_clean' d[k].units = 'N/A' d[k].default = '0' d[k].range = '0 - 1' d[k].level = 'Standard' d[k].purpose = 'If set, resume cleaning from previous results' d[k].more_doc = '' k = k + 1 d[k].name = 'clean_negative_max_test' d[k].class = 'hsi_clean' d[k].units = 'N/A' d[k].default = '1' d[k].range = '0 - 1' d[k].level = 'Advanced' d[k].purpose = 'If set, stop iterating when highest absolute ' + $ 'comes from a negative peak' d[k].more_doc = '' k = k + 1 d[k].name = 'clean_frac' d[k].class = 'hsi_clean' d[k].units = 'N/A' d[k].default = '0.1' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Fraction of map maximum that defines level for real features (gain)' d[k].more_doc = '' k = k + 1 d[k].name = 'clean_sigma_factor' d[k].class = 'hsi_clean' d[k].units = 'N/A' d[k].default = '0.206' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Factor for multiplying pitch of grid parameters ' + $ 'to generate assumed width of point source' d[k].more_doc = '' k = k + 1 d[k].name = 'clean_sigma_beam' d[k].class = 'hsi_clean' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Assumed width of a point source d[k].more_doc = '' k = k + 1 d[k].name = 'clean_taperpsf' d[k].class = 'hsi_clean' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Tapering weights to apply to each collimator' d[k].more_doc = '' k = k + 1 d[k].name = 'clean_chi_sq_crit' d[k].class = 'hsi_clean' d[k].units = 'N/A' d[k].default = '-1.0' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Stop iterating when chi square reaches this value d[k].more_doc = '' k = k + 1 d[k].name = 'clean_lambda' d[k].class = 'hsi_clean' d[k].units = 'N/A' d[k].default = '-1.0' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Clean tweaking parameter #1' d[k].more_doc = '' k = k + 1 d[k].name = 'clean_mu' d[k].class = 'hsi_clean' d[k].units = 'N/A' d[k].default = '-1.0' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Clean tweaking parameter #2' d[k].more_doc = '' k = k + 1 d[k].name = 'clean_nu' d[k].class = 'hsi_clean' d[k].units = 'N/A' d[k].default = '-1.0' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Clean tweaking parameter #3' d[k].more_doc = '' k = k + 1 d[k].name = 'clean_sigma' d[k].class = 'hsi_clean' d[k].units = 'N/A' d[k].default = '-1.0' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Clean tweaking parameter #4' d[k].more_doc = '' k = k + 1 d[k].name = 'clean_tau' d[k].class = 'hsi_clean' d[k].units = 'N/A' d[k].default = '-1.0' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Clean tweaking parameter #5' d[k].more_doc = '' k = k + 1 d[k].name = 'clean_no_chi2' d[k].class = 'hsi_clean' d[k].units = 'N/A' d[k].default = '1' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'If set, do not used the chi^2 to stop' d[k].more_doc = '' k = k + 1 d[k].name = 'clean_show_maps' d[k].class = 'hsi_clean' d[k].units = 'N/A' d[k].default = '1' d[k].range = '0 - 1' d[k].level = 'Standard' d[k].purpose = 'If set, show intermediate maps' d[k].more_doc = '' k = k + 1 d[k].name = 'clean_show_map_xdim' d[k].class = 'hsi_clean' d[k].units = 'N/A' d[k].default = '1024' d[k].range = 'pixel' d[k].level = 'Standard' d[k].purpose = 'X size of plot window for intermediate results' d[k].more_doc = '' k = k + 1 d[k].name = 'clean_show_chi' d[k].class = 'hsi_clean' d[k].units = 'N/A' d[k].default = '1' d[k].range = '0 - 1' d[k].level = 'Standard' d[k].purpose = 'If set, plot chi-square while iterating' d[k].more_doc = '' k = k + 1 d[k].name = 'clean_nwindow' d[k].class = 'hsi_clean' d[k].units = 'N/A' d[k].default = '0' d[k].range = '' d[k].level = 'Advanced' d[k].purpose = 'Not used?' d[k].more_doc = '' k = k + 1 d[k].name = 'clean_box' d[k].class = 'hsi_clean' d[k].units = 'N/A' d[k].default = '0' d[k].range = '' d[k].level = 'Standard' d[k].purpose = 'Define clean boxes (where we expect sources to be)' d[k].more_doc = 'Clean boxes are used in the CLEAN image reconstruction algorithm to define ' + $ 'the locations where we expect source(s) to be found. There are two ways to set clean boxes: ' + $ '

clean_cw_nop, clean_cw_list: This method can handle clean boxes that are any shape. ' + $ 'clean_cw_list is a (2,n) array of x,y coordinates that define ' + $ 'the vertices of each clean box. clean_cw_nop is a vector giving the number of elements in ' + $ 'clean_cw_list that correspond to each clean box. For example, if cw_nop_list is a (2,9) ' + $ 'and cw_nop = [4,5], then clean_cw_list[*,0:3] are the vertices for the first clean box ' + $ '(a triangle), and clean_cw_list[*,[4:8] are the vertices for the second clean box (a rectangle).' + $ '

clean_box: clean_box can only be used to define rectangular clean boxes. clean_box is ' + $ 'a (4,n) array, where the 4 elements of the first dimension are xlo, ylo, xhi, yhi, and the ' + $ 'second dimension is the box number. ' + $ '

If clean_box, clean_cw_nop, and clean_cw_list are all defined, clean_cw_nop/clean_cw_list ' + $ 'take priority.' + $ '

Note: the graphical method for setting clean boxes (by setting clean_mark_box to 1) uses ' + $ 'only clean_cw_nop/clean_cw_list. It does not know about any boxes set via the clean_box ' + $ 'parameter.' k = k + 1 d[k].name = 'clean_cw_list' d[k].class = 'hsi_clean' d[k].units = 'N/A' d[k].default = '0' d[k].range = '' d[k].level = 'Standard' d[k].purpose = 'Define clean boxes (where we expect sources to be)' d[k].more_doc = 'Clean boxes are used in the CLEAN image reconstruction algorithm to define ' + $ 'the locations where we expect source(s) to be found. There are two ways to set clean boxes: ' + $ '

clean_cw_nop, clean_cw_list: This method can handle clean boxes that are any shape. ' + $ 'clean_cw_list is a (2,n) array of x,y coordinates that define ' + $ 'the vertices of each clean box. clean_cw_nop is a vector giving the number of elements in ' + $ 'clean_cw_list that correspond to each clean box. For example, if cw_nop_list is a (2,9) ' + $ 'and cw_nop = [4,5], then clean_cw_list[*,0:3] are the vertices for the first clean box ' + $ '(a triangle), and clean_cw_list[*,[4:8] are the vertices for the second clean box (a rectangle).' + $ '

clean_box: clean_box can only be used to define rectangular clean boxes. clean_box is ' + $ 'a (4,n) array, where the 4 elements of the first dimension are xlo, ylo, xhi, yhi, and the ' + $ 'second dimension is the box number. ' + $ '

If clean_box, clean_cw_nop, and clean_cw_list are all defined, clean_cw_nop/clean_cw_list ' + $ 'take priority.' + $ '

Note: the graphical method for setting clean boxes (by setting clean_mark_box to 1) uses ' + $ 'only clean_cw_nop/clean_cw_list. It does not know about any boxes set via the clean_box ' + $ 'parameter.' k = k + 1 d[k].name = 'clean_cw_nop' d[k].class = 'hsi_clean' d[k].units = 'N/A' d[k].default = '0' d[k].range = '' d[k].level = 'Standard' d[k].purpose = 'Define clean boxes (where we expect sources to be)' d[k].more_doc = 'Clean boxes are used in the CLEAN image reconstruction algorithm to define ' + $ 'the locations where we expect source(s) to be found. There are two ways to set clean boxes: ' + $ '

clean_cw_nop, clean_cw_list: This method can handle clean boxes that are any shape. ' + $ 'clean_cw_list is a (2,n) array of x,y coordinates that define ' + $ 'the vertices of each clean box. clean_cw_nop is a vector giving the number of elements in ' + $ 'clean_cw_list that correspond to each clean box. For example, if cw_nop_list is a (2,9) ' + $ 'and cw_nop = [4,5], then clean_cw_list[*,0:3] are the vertices for the first clean box ' + $ '(a triangle), and clean_cw_list[*,[4:8] are the vertices for the second clean box (a rectangle).' + $ '

clean_box: clean_box can only be used to define rectangular clean boxes. clean_box is ' + $ 'a (4,n) array, where the 4 elements of the first dimension are xlo, ylo, xhi, yhi, and the ' + $ 'second dimension is the box number. ' + $ '

If clean_box, clean_cw_nop, and clean_cw_list are all defined, clean_cw_nop/clean_cw_list ' + $ 'take priority.' + $ '

Note: the graphical method for setting clean boxes (by setting clean_mark_box to 1) uses ' + $ 'only clean_cw_nop/clean_cw_list. It does not know about any boxes set via the clean_box ' + $ 'parameter.' k = k + 1 d[k].name = 'clean_cw_inverse' d[k].class = 'hsi_clean' d[k].units = '' d[k].default = '0' d[k].range = '' d[k].level = 'Standard' d[k].purpose = 'If set, use area outside clean box instead of inside' d[k].more_doc = '' k = k + 1 d[k].name = 'clean_progress_bar' d[k].class = 'hsi_clean' d[k].units = 'N/A' d[k].default = '1' d[k].range = '0 - 1' d[k].level = 'Standard' d[k].purpose = 'If set, display progress bar with cancel button' d[k].more_doc = '' k = k + 1 d[k].name = 'clean_mark_box' d[k].class = 'hsi_clean' d[k].units = 'N/A' d[k].default = '0' d[k].range = '0 - 1' d[k].level = 'Standard' d[k].purpose = 'If set, graphically mark clean boxes on dirty map' d[k].more_doc = '' k = k + 1 d[k].name = 'clean_media_mode' d[k].class = 'hsi_clean' d[k].units = '' d[k].default = '0' d[k].range = '' d[k].level = 'Expert' d[k].purpose = '' d[k].more_doc = '' ; Info parameters for hsi_image_strategy k = k + 1 d[k].name = 'time_axis' d[k].class = 'hsi_image_strategy' d[k].units = '' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = '' d[k].more_doc = '' k = k + 1 d[k].name = 'energy_axis' d[k].class = 'hsi_image_strategy' d[k].units = '' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = '' d[k].more_doc = '' k = k + 1 d[k].name = 'n_images_done' d[k].class = 'hsi_image_strategy' d[k].units = '' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = '' d[k].more_doc = '' k = k + 1 d[k].name = 'im_out_fits_filename' d[k].class = 'hsi_image_strategy' d[k].units = '' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = '' d[k].more_doc = '' ; Info parameters for hsi_aspect_solution k = k + 1 d[k].name = 'as_quality' d[k].class = 'hsi_aspect_solution' d[k].units = '' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = '' d[k].more_doc = '' ; Info parameters for hsi_annsec_pattern k = k + 1 d[k].name = 'rmap_dim' d[k].class = 'hsi_annsec_pattern' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = '' d[k].more_doc = '' k = k + 1 d[k].name = 'n_modpat' d[k].class = 'hsi_annsec_pattern' d[k].units = 'N/A' d[k].default = '0' d[k].range = '' d[k].level = 'N/A' d[k].purpose = '' d[k].more_doc = '' ; Info parameters for hsi_packet_file k = k + 1 d[k].name = 'file_location' d[k].class = 'hsi_packet_file' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = '' d[k].more_doc = '' ; Info parameters for hsi_packet k = k + 1 d[k].name = 'file_time_range' d[k].class = 'hsi_packet' d[k].units = 'ANYTIM' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Start/end time of file specified in filename parameter' d[k].more_doc = '' k = k + 1 d[k].name = 'n_packet' d[k].class = 'hsi_packet' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Number of packets in the file (or in selection)' d[k].more_doc = '' k = k + 1 d[k].name = 'packet_ref_time' d[k].class = 'hsi_packet' d[k].units = 'N/A' d[k].default = '0.0' d[k].range = '' d[k].level = 'N/A' d[k].purpose = '' d[k].more_doc = '' k = k + 1 d[k].name = 'simulated_data' d[k].class = 'hsi_packet' d[k].units = 'N/A' d[k].default = '0' d[k].range = '' d[k].level = 'N/A' d[k].purpose = '' d[k].more_doc = '' ; Info parameters for hsi_eventlist k = k + 1 d[k].name = 'eventlist_strategy' d[k].class = 'hsi_eventlist' d[k].units = 'N/A' d[k].default = 'HSI_EVENTLIST_PACKET' d[k].range = 'HSI_EVENTLIST_PACKET, HSI_EVENTLIST_SIMULATION' d[k].level = 'N/A' d[k].purpose = 'Strategy used by GETDATA to get event lists' d[k].more_doc = '' ; Info parameters for hsi_modul_pattern k = k + 1 d[k].name = 'img_strategy_available' d[k].class = 'hsi_modul_pattern' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = '' d[k].more_doc = '' ; Info parameters for hsi_fits k = k + 1 d[k].name = 'simulated_data' d[k].class = 'hsi_fits' d[k].units = 'N/A' d[k].default = '0' d[k].range = '' d[k].level = 'N/A' d[k].purpose = '' d[k].more_doc = '' ; Info parameters for hsi_monitor_rate k = k + 1 d[k].name = 'dtime' d[k].class = 'hsi_monitor_rate' d[k].units = 'N/A' d[k].default = '0.0' d[k].range = '' d[k].level = 'N/A' d[k].purpose = '' d[k].more_doc = '' k = k + 1 d[k].name = 'mon_ut_ref' d[k].class = 'hsi_monitor_rate' d[k].units = 'N/A' d[k].default = '0.0' d[k].range = '' d[k].level = 'N/A' d[k].purpose = '' d[k].more_doc = '' k = k + 1 d[k].name = 'ncyles' d[k].class = 'hsi_monitor_rate' d[k].units = 'N/A' d[k].default = '0' d[k].range = '' d[k].level = 'N/A' d[k].purpose = '' d[k].more_doc = '' ; Info parameters for hsi_sohdata k = k + 1 d[k].name = 'soh_absolute_time_range' d[k].class = 'hsi_sohdata' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = '' d[k].more_doc = '' k = k + 1 d[k].name = 'soh_time_array' d[k].class = 'hsi_sohdata' d[k].units = 'se' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Array of collect times for each packet' d[k].more_doc = '' k = k + 1 d[k].name = 'soh_info' d[k].class = 'hsi_sohdata' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = '' d[k].more_doc = '' k = k + 1 d[k].name = 'soh_data_files' d[k].class = 'hsi_sohdata' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = '' d[k].more_doc = '' ; Info parameters for hsi_spectrum k = k + 1 d[k].name = 'mask_flag' d[k].class = 'hsi_spectrum' d[k].units = 'N/A' d[k].default = '' d[k].range = 'A2D, DET, SEG' d[k].level = 'N/A' d[k].purpose = 'Detector selection flag used' d[k].more_doc = '' k = k + 1 d[k].name = 'sp_seg_index_mask' d[k].class = 'hsi_spectrum' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Not used' d[k].more_doc = '' k = k + 1 d[k].name = 'sp_det_index_mask' d[k].class = 'hsi_spectrum' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Not used' d[k].more_doc = '' k = k + 1 d[k].name = 'sp_data_ltf' d[k].class = 'hsi_spectrum' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = '' d[k].more_doc = '' k = k + 1 d[k].name = 'sp_data_de' d[k].class = 'hsi_spectrum' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = '' d[k].more_doc = '' k = k + 1 d[k].name = 'sp_data_dt' d[k].class = 'hsi_spectrum' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = '' d[k].more_doc = '' k = k + 1 d[k].name = 'sp_eff_info' d[k].class = 'hsi_spectrum' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = '' d[k].more_doc = '' k = k + 1 d[k].name = 'num_rm' d[k].class = 'hsi_spectrum' d[k].units = '' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'number of detectors/segments used for averaging to "per ' + $ 'detector"' d[k].more_doc = '' k = k + 1 d[k].name = 'pileup_tbin' d[k].class = 'hsi_spectrum' d[k].units = '' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = '' d[k].more_doc = '' k = k + 1 d[k].name = 'pileup_seg_index' d[k].class = 'hsi_spectrum' d[k].units = '' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = '' d[k].more_doc = '' ; Info parameters for hsi_obssumm k = k + 1 d[k].name = 'summary_start_time' d[k].class = 'hsi_obssumm' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Start time of summary data.' d[k].more_doc = '' k = k + 1 d[k].name = 'summary_end_time' d[k].class = 'hsi_obssumm' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Start time of summary data.' d[k].more_doc = '' k = k + 1 d[k].name = 'simulated_data' d[k].class = 'hsi_obssumm' d[k].units = 'N/A' d[k].default = '0' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'If set, data is simulated.' d[k].more_doc = '' k = k + 1 d[k].name = 'concat_flag' d[k].class = 'hsi_obssumm' d[k].units = 'N/A' d[k].default = '0' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'If set, summaries are concatenated.' d[k].more_doc = '' ; Info parameters for hsi_qlook_monitor_rate k = k + 1 d[k].name = 'ut_ref' d[k].class = 'hsi_qlook_monitor_rate' d[k].units = '' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'start time' d[k].more_doc = '' k = k + 1 d[k].name = 'n_time_intv' d[k].class = 'hsi_qlook_monitor_rate' d[k].units = '' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'the number of time intervals' d[k].more_doc = '' k = k + 1 d[k].name = 'time_intv' d[k].class = 'hsi_qlook_monitor_rate' d[k].units = '' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'the number of time intervals' d[k].more_doc = '' k = k + 1 d[k].name = 'dim1_unit' d[k].class = 'hsi_qlook_monitor_rate' d[k].units = '' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'an identifying string' d[k].more_doc = '' k = k + 1 d[k].name = 'dim1_ids' d[k].class = 'hsi_qlook_monitor_rate' d[k].units = '' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = '6 different kinds of data' d[k].more_doc = '' ; Info parameters for hsi_qlook_packet_rate k = k + 1 d[k].name = 'ut_ref' d[k].class = 'hsi_qlook_packet_rate' d[k].units = '' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'start time' d[k].more_doc = '' k = k + 1 d[k].name = 'n_time_intv' d[k].class = 'hsi_qlook_packet_rate' d[k].units = '' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'the number of time intervals' d[k].more_doc = '' k = k + 1 d[k].name = 'time_intv' d[k].class = 'hsi_qlook_packet_rate' d[k].units = '' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'the number of time intervals' d[k].more_doc = '' k = k + 1 d[k].name = 'app_id' d[k].class = 'hsi_qlook_packet_rate' d[k].units = '' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'app_ids' d[k].more_doc = '' k = k + 1 d[k].name = 'dim1_unit' d[k].class = 'hsi_qlook_packet_rate' d[k].units = '' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'an identifying string' d[k].more_doc = '' k = k + 1 d[k].name = 'dim1_ids' d[k].class = 'hsi_qlook_packet_rate' d[k].units = '' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'one for each app_id' d[k].more_doc = '' ; Info parameters for hsi_particlerate k = k + 1 d[k].name = 'ut_ref' d[k].class = 'hsi_particlerate' d[k].units = 'ANYTIM' d[k].default = '0.0' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Start time' d[k].more_doc = '' k = k + 1 d[k].name = 'n_time_intv' d[k].class = 'hsi_particlerate' d[k].units = 'N/A' d[k].default = '0' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'the number of time intervals' d[k].more_doc = '' k = k + 1 d[k].name = 'time_intv' d[k].class = 'hsi_particlerate' d[k].units = 'N/A' d[k].default = '0.0' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'the number of time intervals' d[k].more_doc = '' k = k + 1 d[k].name = 'dim1_unit' d[k].class = 'hsi_particlerate' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = '"Energy Bands (keV)"' d[k].more_doc = '' k = k + 1 d[k].name = 'dim1_ids' d[k].class = 'hsi_particlerate' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = '' d[k].more_doc = '' ; Info parameters for hsi_obssummflag k = k + 1 d[k].name = 'ut_ref' d[k].class = 'hsi_obssummflag' d[k].units = 'ANYTIM' d[k].default = '0.0' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Start time' d[k].more_doc = '' k = k + 1 d[k].name = 'n_time_intv' d[k].class = 'hsi_obssummflag' d[k].units = 'N/A' d[k].default = '0' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'the number of time intervals, for this summary' d[k].more_doc = '' k = k + 1 d[k].name = 'time_intv' d[k].class = 'hsi_obssummflag' d[k].units = 'N/A' d[k].default = '0.0' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'the number of time intervals, for this summary' d[k].more_doc = '' k = k + 1 d[k].name = 'nflags' d[k].class = 'hsi_obssummflag' d[k].units = 'N/A' d[k].default = '0' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'the number of data flags' d[k].more_doc = '' k = k + 1 d[k].name = 'flag_ids' d[k].class = 'hsi_obssummflag' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'string identifiers for each data flag,' d[k].more_doc = '' ; Info parameters for hsi_qlook_soh k = k + 1 d[k].name = 'ut_ref' d[k].class = 'hsi_qlook_soh' d[k].units = '' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'reference time' d[k].more_doc = '' k = k + 1 d[k].name = 'n_time_intv' d[k].class = 'hsi_qlook_soh' d[k].units = '' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'the number of time intervals, for this summary' d[k].more_doc = '' k = k + 1 d[k].name = 'time_intv' d[k].class = 'hsi_qlook_soh' d[k].units = '' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'the number of time intervals, for this summary' d[k].more_doc = '' k = k + 1 d[k].name = 'nsoh' d[k].class = 'hsi_qlook_soh' d[k].units = '' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'the number of data types' d[k].more_doc = '' k = k + 1 d[k].name = 'name' d[k].class = 'hsi_qlook_soh' d[k].units = '' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'the name of each data type' d[k].more_doc = '' k = k + 1 d[k].name = 'mnemonic' d[k].class = 'hsi_qlook_soh' d[k].units = '' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'the label of each data type' d[k].more_doc = '' k = k + 1 d[k].name = 'units' d[k].class = 'hsi_qlook_soh' d[k].units = '' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'units' d[k].more_doc = '' k = k + 1 d[k].name = 'limits' d[k].class = 'hsi_qlook_soh' d[k].units = '' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = '[red_lo, yellow_lo, yellow_hi, red_hi]' d[k].more_doc = '' ; Info parameters for hsi_ephemeris k = k + 1 d[k].name = 'n_time_intv' d[k].class = 'hsi_ephemeris' d[k].units = 'N/A' d[k].default = '0' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'the number of ephemeris data points' d[k].more_doc = '' k = k + 1 d[k].name = 'time_intv' d[k].class = 'hsi_ephemeris' d[k].units = 'N/A' d[k].default = '0.0' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'the number of ephemeris data points' d[k].more_doc = '' k = k + 1 d[k].name = 'ut_ref' d[k].class = 'hsi_ephemeris' d[k].units = 'ANYTIM' d[k].default = '0.0' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Start time' d[k].more_doc = '' k = k + 1 d[k].name = 'dim1_unit' d[k].class = 'hsi_ephemeris' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'S/C position an identifying string' d[k].more_doc = '' k = k + 1 d[k].name = 'dim1_ids' d[k].class = 'hsi_ephemeris' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = '["X", "Y", "Z", "Vx", "Vy", "Vz"]' d[k].more_doc = '' ; Info parameters for hsi_flarelist k = k + 1 d[k].name = 'n_flares' d[k].class = 'hsi_flarelist' d[k].units = 'N/A' d[k].default = '--' d[k].range = '--' d[k].level = 'N/A' d[k].purpose = 'Number of HESSI flares in catalog' d[k].more_doc = '' k = k + 1 d[k].name = 'list_start_time' d[k].class = 'hsi_flarelist' d[k].units = 'CCSDS format' d[k].default = '--' d[k].range = '--' d[k].level = 'N/A' d[k].purpose = 'Start time of HESSI flare catalog' d[k].more_doc = '' k = k + 1 d[k].name = 'list_end_time' d[k].class = 'hsi_flarelist' d[k].units = 'CCSDS format' d[k].default = '--' d[k].range = '--' d[k].level = 'N/A' d[k].purpose = 'End time of HESSI flare catalog' d[k].more_doc = '' k = k + 1 d[k].name = 'nflags' d[k].class = 'hsi_flarelist' d[k].units = 'N/A' d[k].default = '--' d[k].range = '0 - 32' d[k].level = 'N/A' d[k].purpose = 'Number of flare data flags' d[k].more_doc = '' k = k + 1 d[k].name = 'flag_ids' d[k].class = 'hsi_flarelist' d[k].units = 'N/A' d[k].default = '--' d[k].range = '--' d[k].level = 'N/A' d[k].purpose = 'String identifiers for each flare flag' d[k].more_doc = '' k = k + 1 d[k].name = 'simulated_data' d[k].class = 'hsi_flarelist' d[k].units = 'N/A' d[k].default = '0' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'If set, data is simulated' d[k].more_doc = '' k = k + 1 d[k].name = 'concat_flag' d[k].class = 'hsi_flarelist' d[k].units = 'N/A' d[k].default = '0' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'If set, flare list has been concatenated from level 0 FITS files.' d[k].more_doc = '' ; Info parameters for hsi_obs_background k = k + 1 d[k].name = 'n_background' d[k].class = 'hsi_obs_background' d[k].units = 'N/A' d[k].default = '0' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'number of background measurements' d[k].more_doc = '' ; Info parameters for hsi_qlook_image k = k + 1 d[k].name = 'n_images' d[k].class = 'hsi_qlook_image' d[k].units = 'N/A' d[k].default = '0' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'the number of images' d[k].more_doc = '' k = k + 1 d[k].name = 'start_time' d[k].class = 'hsi_qlook_image' d[k].units = 'N/A' d[k].default = '0.0' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'start time' d[k].more_doc = '' k = k + 1 d[k].name = 'end_time' d[k].class = 'hsi_qlook_image' d[k].units = 'N/A' d[k].default = '0.0' d[k].range = '' d[k].level = 'N/A' d[k].purpose = '' d[k].more_doc = '' k = k + 1 d[k].name = 'concat_flag' d[k].class = 'hsi_qlook_image' d[k].units = 'N/A' d[k].default = '0' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'If set, data is concatenated.' d[k].more_doc = '' ; Info parameters for hsi_qlook_pointing k = k + 1 d[k].name = 'ut_ref' d[k].class = 'hsi_qlook_pointing' d[k].units = 'ANYTIM' d[k].default = '0.0' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Start time' d[k].more_doc = '' k = k + 1 d[k].name = 'n_time_intv' d[k].class = 'hsi_qlook_pointing' d[k].units = 'N/A' d[k].default = '0' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'the number of time intervals' d[k].more_doc = '' k = k + 1 d[k].name = 'time_intv' d[k].class = 'hsi_qlook_pointing' d[k].units = 'N/A' d[k].default = '0.0' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'the number of time intervals' d[k].more_doc = '' k = k + 1 d[k].name = 'n_sample' d[k].class = 'hsi_qlook_pointing' d[k].units = 'N/A' d[k].default = '0' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'number of smaller bins per time_intv' d[k].more_doc = '' k = k + 1 d[k].name = 'a1' d[k].class = 'hsi_qlook_pointing' d[k].units = 'N/A' d[k].default = '10.' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Scaling factor; Pointing = a1*data+a0' d[k].more_doc = '' k = k + 1 d[k].name = 'a0' d[k].class = 'hsi_qlook_pointing' d[k].units = 'N/A' d[k].default = '-1280.' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Scaling factor; Pointing = a1*data+a0' d[k].more_doc = '' k = k + 1 d[k].name = 'dim1_unit' d[k].class = 'hsi_qlook_pointing' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = '"Image Axis" an identifying string' d[k].more_doc = '' k = k + 1 d[k].name = 'dim1_ids' d[k].class = 'hsi_qlook_pointing' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = '"X", "Y"' d[k].more_doc = '' ; Info parameters for hsi_qlook_roll_angle k = k + 1 d[k].name = 'ut_ref' d[k].class = 'hsi_qlook_roll_angle' d[k].units = 'ANYTIM' d[k].default = '0.0' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Start time' d[k].more_doc = '' k = k + 1 d[k].name = 'n_time_intv' d[k].class = 'hsi_qlook_roll_angle' d[k].units = 'N/A' d[k].default = '0' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'the number of time intervals' d[k].more_doc = '' k = k + 1 d[k].name = 'time_intv' d[k].class = 'hsi_qlook_roll_angle' d[k].units = 'N/A' d[k].default = '0.0' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'the number of time intervals' d[k].more_doc = '' k = k + 1 d[k].name = 'n_sample' d[k].class = 'hsi_qlook_roll_angle' d[k].units = 'N/A' d[k].default = '0' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'number of smaller bins per time_intv' d[k].more_doc = '' k = k + 1 d[k].name = 'a1' d[k].class = 'hsi_qlook_roll_angle' d[k].units = 'N/A' d[k].default = '2*pi*255' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Scaling factor; Roll Angle = a1*data+a0' d[k].more_doc = '' k = k + 1 d[k].name = 'a0' d[k].class = 'hsi_qlook_roll_angle' d[k].units = 'N/A' d[k].default = '0.0' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Scaling factor; Roll Angle = a1*data+a0' d[k].more_doc = '' k = k + 1 d[k].name = 'dim1_unit' d[k].class = 'hsi_qlook_roll_angle' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = '"Image Axis" an identifying string' d[k].more_doc = '' k = k + 1 d[k].name = 'dim1_ids' d[k].class = 'hsi_qlook_roll_angle' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = '"X", "Y"' d[k].more_doc = '' ; Info parameters for hsi_qlook_roll_period k = k + 1 d[k].name = 'ut_ref' d[k].class = 'hsi_qlook_roll_period' d[k].units = 'ANYTIM' d[k].default = '0.0' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Start time' d[k].more_doc = '' k = k + 1 d[k].name = 'n_time_intv' d[k].class = 'hsi_qlook_roll_period' d[k].units = 'N/A' d[k].default = '0' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'the number of time intervals' d[k].more_doc = '' k = k + 1 d[k].name = 'time_intv' d[k].class = 'hsi_qlook_roll_period' d[k].units = 'N/A' d[k].default = '0.0' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'the number of time intervals' d[k].more_doc = '' k = k + 1 d[k].name = 'n_sample' d[k].class = 'hsi_qlook_roll_period' d[k].units = 'N/A' d[k].default = '0' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'number of smaller bins per time_intv' d[k].more_doc = '' k = k + 1 d[k].name = 'a1' d[k].class = 'hsi_qlook_roll_period' d[k].units = 'N/A' d[k].default = '.1' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Scaling factor; Roll Period = a1*data+a0' d[k].more_doc = '' k = k + 1 d[k].name = 'a0' d[k].class = 'hsi_qlook_roll_period' d[k].units = 'N/A' d[k].default = '0.0' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Scaling factor; Roll Period = a1*data+a0' d[k].more_doc = '' k = k + 1 d[k].name = 'dim1_unit' d[k].class = 'hsi_qlook_roll_period' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = '"Image Axis" an identifying string' d[k].more_doc = '' k = k + 1 d[k].name = 'dim1_ids' d[k].class = 'hsi_qlook_roll_period' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = '"X", "Y"' d[k].more_doc = '' ; Info parameters for hsi_image_single k = k + 1 d[k].name = 'algorithm_used' d[k].class = 'hsi_image_single' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = '' d[k].more_doc = '' k = k + 1 d[k].name = 'algorithm_units' d[k].class = 'hsi_image_single' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = '' d[k].more_doc = '' k = k + 1 d[k].name = 'alg_unit_scale' d[k].class = 'hsi_image_single' d[k].units = 'N/A' d[k].default = '0.0' d[k].range = '' d[k].level = 'N/A' d[k].purpose = '' d[k].more_doc = '' k = k + 1 d[k].name = 'pixel_area' d[k].class = 'hsi_image_single' d[k].units = 'N/A' d[k].default = '0.0' d[k].range = '' d[k].level = 'N/A' d[k].purpose = '' d[k].more_doc = '' k = k + 1 d[k].name = 'image_units' d[k].class = 'hsi_image_single' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = '' d[k].more_doc = '' k = k + 1 d[k].name = 'algorithm_available' d[k].class = 'hsi_image_single' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = '' d[k].more_doc = '' ; Info parameters for hsi_bproj k = k + 1 d[k].name = 'bproj_alg_available' d[k].class = 'hsi_bproj' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = '' d[k].more_doc = '' ; Info parameters for hsi_forwardfit k = k + 1 d[k].name = 'ff_chi_ff' d[k].class = 'hsi_forwardfit' d[k].units = 'N/A' d[k].default = '--' d[k].range = '--' d[k].level = 'N/A' d[k].purpose = 'C-statistic of 9 detectors' d[k].more_doc = '' k = k + 1 d[k].name = 'ff_chiav_ff' d[k].class = 'hsi_forwardfit' d[k].units = 'N/A' d[k].default = '--' d[k].range = '--' d[k].level = 'N/A' d[k].purpose = 'Average of C-statistic of detectors used in reconstruction' d[k].more_doc = '' k = k + 1 d[k].name = 'ff_phot_sec' d[k].class = 'hsi_forwardfit' d[k].units = 'photons/sec' d[k].default = '--' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Incident photon rate (photons/s)' d[k].more_doc = '' k = k + 1 d[k].name = 'ff_back_sec' d[k].class = 'hsi_forwardfit' d[k].units = '' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Background photon rate (photons/s SC)' d[k].more_doc = '' k = k + 1 d[k].name = 'ff_cts_sec' d[k].class = 'hsi_forwardfit' d[k].units = '' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Detected count rate (cts/s)' d[k].more_doc = '' k = k + 1 d[k].name = 'ff_peak_flux' d[k].class = 'hsi_forwardfit' d[k].units = 'cts/(s cm^2 asec^2)' d[k].default = '--' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Normalized gaussian amplitude of peak of image (photons/s/cm2)' d[k].more_doc = '' k = k + 1 d[k].name = 'ff_coeff_ff' d[k].class = 'hsi_forwardfit' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Coefficients' d[k].more_doc = 'Coefficients in array of form fltarr(npar,n_gaussians) ' + $ 'where npar is the number of parameters ' + $ '(4 for gaussian, 6 for elliptical, 7 for curved elliptical) ' + $ 'and n_gaussians is the number of gaussian components used. ' + $ '

The parameters are: ' + $ '
1) the relative flux amplitude,' + $ '
2) the gaussian width (in arcsec) ' + $ '
3) the x- and ' + $ '
4) the y-position of the gaussian center relative to the map center (in arcsec)' + $ '
5) the eccentricity for elliptical gaussians [e=ywidth/xwidth-1]' + $ '
6) the tilt angle of elliptical gaussian (deg counterclockwise from x-axis)' + $ '
7) curvature ratio, i.e. gaussian width/curvature radius' ; Info parameters for hsi_clean k = k + 1 d[k].name = 'clean_resid_map' d[k].class = 'hsi_clean' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Residual map in polar coordinates' d[k].more_doc = '' k = k + 1 d[k].name = 'clean_component_map' d[k].class = 'hsi_clean' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Clean component map in polar coordinates' d[k].more_doc = '' k = k + 1 d[k].name = 'clean_source_map' d[k].class = 'hsi_clean' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Clean source map in polar coordinates' d[k].more_doc = '' k = k + 1 d[k].name = 'clean_cleaned_map' d[k].class = 'hsi_clean' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Cleaned map in polar coordinates' d[k].more_doc = '' k = k + 1 d[k].name = 'clean_components' d[k].class = 'hsi_clean' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = '' d[k].more_doc = '' k = k + 1 d[k].name = 'clean_windows' d[k].class = 'hsi_clean' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = '' d[k].more_doc = '' k = k + 1 d[k].name = 'clean_ed_flux' d[k].class = 'hsi_clean' d[k].units = 'N/A' d[k].default = '0.0' d[k].range = '' d[k].level = 'N/A' d[k].purpose = '' d[k].more_doc = '' k = k + 1 d[k].name = 'clean_last_iter' d[k].class = 'hsi_clean' d[k].units = 'N/A' d[k].default = '0' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Last iteration # (starting from 0)' d[k].more_doc = '' k = k + 1 d[k].name = 'clean_chi_sq_tot' d[k].class = 'hsi_clean' d[k].units = 'N/A' d[k].default = '0.0' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Final chi square' d[k].more_doc = '' k = k + 1 d[k].name = 'clean_chi_sq_value' d[k].class = 'hsi_clean' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Final chi square for each subcollimator for each iteration' d[k].more_doc = '' k = k + 1 d[k].name = 'clean_chi_sq_iter' d[k].class = 'hsi_clean' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = '' d[k].more_doc = '' k = k + 1 d[k].name = 'clean_chi_window' d[k].class = 'hsi_clean' d[k].units = 'N/A' d[k].default = '-1' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Index of show_chi plot window' d[k].more_doc = '' k = k + 1 d[k].name = 'clean_map_window' d[k].class = 'hsi_clean' d[k].units = 'N/A' d[k].default = '-1' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Index of show_map plot window' d[k].more_doc = '' k = k + 1 d[k].name = 'clean_normalization' d[k].class = 'hsi_clean' d[k].units = 'N/A' d[k].default = '0.0' d[k].range = '' d[k].level = 'N/A' d[k].purpose = '' d[k].more_doc = '' k = k + 1 d[k].name = 'clean_stop' d[k].class = 'hsi_clean' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Reason for stopping iterations' d[k].more_doc = '' ; Info parameters for hsi_pixon k = k + 1 d[k].name = 'pixon_sensitivity' d[k].class = 'hsi_pixon' d[k].units = 'N/A' d[k].default = '0.0' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Sensitivity used in creating pixon map. 0. is most ' + $ 'sensitive, > 3. is very insensitive.' d[k].more_doc = '' k = k + 1 d[k].name = 'pixon_residual' d[k].class = 'hsi_pixon' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Data residuals' d[k].more_doc = '' k = k + 1 d[k].name = 'pixon_rgof' d[k].class = 'hsi_pixon' d[k].units = 'N/A' d[k].default = '--' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Final c-statistic' d[k].more_doc = '' k = k + 1 d[k].name = 'pixon_error' d[k].class = 'hsi_pixon' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Array of estimated error in each pixel of reconstructed image' d[k].more_doc = '' k = k + 1 d[k].name = 'pixon_iterate' d[k].class = 'hsi_pixon' d[k].units = 'N/A' d[k].default = '--' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Number of iterations used at final resolution' d[k].more_doc = '' k = k + 1 d[k].name = 'pixon_outresolution' d[k].class = 'hsi_pixon' d[k].units = 'N/A' d[k].default = '-' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Minimum pixon size used' d[k].more_doc = '' k = k + 1 d[k].name = 'pixonmap' d[k].class = 'hsi_pixon' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Map giving spatial scale used at each pixel' d[k].more_doc = '' k = k + 1 d[k].name = 'pixon_sizes' d[k].class = 'hsi_pixon' d[k].units = 'N/A' d[k].default = 'Powers of sqrt(2.0)' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Array of pixon resolutions to use. Choose findgen(32)+1 for ' + $ 'more robust but slower solution.' d[k].more_doc = '' ; Info parameters for hsi_calib_eventlist k = k + 1 d[k].name = 'cbe_det_eff' d[k].class = 'hsi_calib_eventlist' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = '' d[k].more_doc = '' k = k + 1 d[k].name = 'offaxis_disp' d[k].class = 'hsi_calib_eventlist' d[k].units = '' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = '' d[k].more_doc = '' k = k + 1 d[k].name = 'image_atten_state' d[k].class = 'hsi_calib_eventlist' d[k].units = '' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Attenuator state during image' d[k].more_doc = '' k = k + 1 d[k].name = 'phz_n_roll_bins_info' d[k].class = 'hsi_calib_eventlist' d[k].units = '' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Number of roll bins used for each grid' d[k].more_doc = '' k = k + 1 d[k].name = 'det_index_off' d[k].class = 'hsi_calib_eventlist' d[k].units = '' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'If set, then no valid times for this detector' d[k].more_doc = '' k = k + 1 d[k].name = 'binned_n_event' d[k].class = 'hsi_calib_eventlist' d[k].units = '' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Total counts in each detector for selected energy range' d[k].more_doc = '' ; Info parameters for hsi_eventlist_packet ; Info parameters for hsi_eventlist_strategy k = k + 1 d[k].name = 'n_event' d[k].class = 'hsi_eventlist_strategy' d[k].units = 'N/A' d[k].default = '0' d[k].range = '' d[k].level = 'N/A' d[k].purpose = '' d[k].more_doc = '' k = k + 1 d[k].name = 'ut_ref' d[k].class = 'hsi_eventlist_strategy' d[k].units = 'N/A' d[k].default = '0.0' d[k].range = '' d[k].level = 'N/A' d[k].purpose = '' d[k].more_doc = '' k = k + 1 d[k].name = 'channel_range' d[k].class = 'hsi_eventlist_strategy' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = '' d[k].more_doc = '' k = k + 1 d[k].name = 'coincidence_mask' d[k].class = 'hsi_eventlist_strategy' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = '' d[k].more_doc = '' k = k + 1 d[k].name = 'info_dp_cutoff' d[k].class = 'hsi_eventlist_strategy' d[k].units = 'sec' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Threshold for defining a data gap.' d[k].more_doc = '' k = k + 1 d[k].name = 'info_dp_lld' d[k].class = 'hsi_eventlist_strategy' d[k].units = '' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'User selectable gap closing lld. Not used as of Oct-02' d[k].more_doc = '' k = k + 1 d[k].name = 'absolute_time_range' d[k].class = 'hsi_eventlist_strategy' d[k].units = 'sec since 1979/1/1 00' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Time range of data that was used' d[k].more_doc = '' k = k + 1 d[k].name = 'ev_ut_ref' d[k].class = 'hsi_eventlist_strategy' d[k].units = '' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = '' d[k].more_doc = '' k = k + 1 d[k].name = 'lt_ut_ref' d[k].class = 'hsi_eventlist_strategy' d[k].units = '' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = '' d[k].more_doc = '' k = k + 1 d[k].name = 'csa_lld' d[k].class = 'hsi_eventlist_strategy' d[k].units = '' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = '' d[k].more_doc = '' k = k + 1 d[k].name = 'ev_sim_data' d[k].class = 'hsi_eventlist_strategy' d[k].units = '' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = '' d[k].more_doc = '' ; Info parameters for hsi_binned_eventlist k = k + 1 d[k].name = 'n_bin' d[k].class = 'hsi_binned_eventlist' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Number of bins for each detector and harmonics' d[k].more_doc = '' k = k + 1 d[k].name = 'binned_n_event' d[k].class = 'hsi_binned_eventlist' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Total counts in each detector for selected energy range' d[k].more_doc = '' k = k + 1 d[k].name = 'ut_binned_eventlist' d[k].class = 'hsi_binned_eventlist' d[k].units = '' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = '' d[k].more_doc = '' k = k + 1 d[k].name = 'valid_binned_index' d[k].class = 'hsi_binned_eventlist' d[k].units = '' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = '' d[k].more_doc = '' ; Info parameters for hsi_lightcurve ; Info parameters for hsi_spectrogram k = k + 1 d[k].name = 'binning' d[k].class = 'hsi_spectrogram' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Binning scheme for spectrograms' d[k].more_doc = '' k = k + 1 d[k].name = 'this_det_index' d[k].class = 'hsi_spectrogram' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Det_index_mask used' d[k].more_doc = '' k = k + 1 d[k].name = 'this_a2d_index' d[k].class = 'hsi_spectrogram' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'A2d_index_mask used' d[k].more_doc = '' k = k + 1 d[k].name = 'this_seg_index' d[k].class = 'hsi_spectrogram' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Seg_index_mask used' d[k].more_doc = '' k = k + 1 d[k].name = 'units_spectrogram' d[k].class = 'hsi_spectrogram' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Units of spectrum' d[k].more_doc = '' k = k + 1 d[k].name = 'dim_spectrogram' d[k].class = 'hsi_spectrogram' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Dimensions of spectrogram data array' d[k].more_doc = '' k = k + 1 d[k].name = 'counts_2_unit' d[k].class = 'hsi_spectrogram' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = '' d[k].more_doc = '' k = k + 1 d[k].name = 'total_count' d[k].class = 'hsi_spectrogram' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = '' d[k].more_doc = '' k = k + 1 d[k].name = 'sec2time_unit' d[k].class = 'hsi_spectrogram' d[k].units = 'N/A' d[k].default = '0.0' d[k].range = '' d[k].level = 'N/A' d[k].purpose = '' d[k].more_doc = '' k = k + 1 d[k].name = 'sp_atten_state' d[k].class = 'hsi_spectrogram' d[k].units = '' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'RAS, 17-feb-2002' d[k].more_doc = '' k = k + 1 d[k].name = 'interval_atten_state' d[k].class = 'hsi_spectrogram' d[k].units = '' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'atten state for each time interval, 0,1,2,3, -1 for ' + $ 'transition' d[k].more_doc = '' k = k + 1 d[k].name = 'shutter_correction' d[k].class = 'hsi_spectrogram' d[k].units = '' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Fractional transmission through shutters (energy,det,attenstate)' d[k].more_doc = '' k = k + 1 d[k].name = 'dropout' d[k].class = 'hsi_spectrogram' d[k].units = '' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = '' d[k].more_doc = '' k = k + 1 d[k].name = 'livetime_arr' d[k].class = 'hsi_spectrogram' d[k].units = '' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = '' d[k].more_doc = '' k = k + 1 d[k].name = 'livetime_ctr' d[k].class = 'hsi_spectrogram' d[k].units = '' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Livetime fraction from the livetime counters. Only one ' + $ 'component of final livetime.' d[k].more_doc = '' k = k + 1 d[k].name = 'offset_gain_str' d[k].class = 'hsi_spectrogram' d[k].units = '' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = '' d[k].more_doc = '' k = k + 1 d[k].name = 'used_xyoffset' d[k].class = 'hsi_spectrogram' d[k].units = '' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Value of xyoffset used.' d[k].more_doc = '' k = k + 1 d[k].name = 'decim_table' d[k].class = 'hsi_spectrogram' d[k].units = '' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Structure describing times, energies, and weights of ' + $ 'decimation' d[k].more_doc = '' k = k + 1 d[k].name = 'decim_warning' d[k].class = 'hsi_spectrogram' d[k].units = '' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Message if decimation is faulty' d[k].more_doc = '' ; Info parameters for hsi_srm k = k + 1 d[k].name = 'geom_area' d[k].class = 'hsi_srm' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Geometrical area of each detector' d[k].more_doc = 'Geometrical area of each detector assumed in generating the srm ' + $ 'in these units: it is a circle of radius 7.1 cm (regardless of front or rear ' + $ 'segment - this makes the front segments less "efficient" than you might expect, ' + $ 'since their true diameter is about 6.1 cm)' k = k + 1 d[k].name = 'info_ph_edges' d[k].class = 'hsi_srm' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Photon binning used' d[k].more_doc = '' k = k + 1 d[k].name = 'info_apt_filename' d[k].class = 'hsi_srm' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'APT filename used' d[k].more_doc = '' ; Info parameters for hsi_modvariance k = k + 1 d[k].name = 'ut_ref' d[k].class = 'hsi_modvariance' d[k].units = 'N/A' d[k].default = '0.0' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'start time' d[k].more_doc = '' k = k + 1 d[k].name = 'n_time_intv' d[k].class = 'hsi_modvariance' d[k].units = 'N/A' d[k].default = '0' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'the number of time intervals' d[k].more_doc = '' k = k + 1 d[k].name = 'time_intv' d[k].class = 'hsi_modvariance' d[k].units = 'N/A' d[k].default = '0.0' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'the number of time intervals' d[k].more_doc = '' k = k + 1 d[k].name = 'variance_nbin' d[k].class = 'hsi_modvariance' d[k].units = 'N/A' d[k].default = '0' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'the number of time bins per spin period' d[k].more_doc = '' k = k + 1 d[k].name = 'energy_edges' d[k].class = 'hsi_modvariance' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'The energy bin edges' d[k].more_doc = '' k = k + 1 d[k].name = 'dim1_unit' d[k].class = 'hsi_modvariance' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = '"Collimator" an identifying string' d[k].more_doc = '' k = k + 1 d[k].name = 'dim1_ids' d[k].class = 'hsi_modvariance' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = '"8", "9" Collimators' d[k].more_doc = '' ; Info parameters for hsi_obssummrate k = k + 1 d[k].name = 'ut_ref' d[k].class = 'hsi_obssummrate' d[k].units = 'N/A' d[k].default = '0.0' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'start time' d[k].more_doc = '' k = k + 1 d[k].name = 'seg_index_mask' d[k].class = 'hsi_obssummrate' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'detector ids' d[k].more_doc = '' k = k + 1 d[k].name = 'n_time_intv' d[k].class = 'hsi_obssummrate' d[k].units = 'N/A' d[k].default = '0' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'the number of time intervals' d[k].more_doc = '' k = k + 1 d[k].name = 'time_intv' d[k].class = 'hsi_obssummrate' d[k].units = 'N/A' d[k].default = '0.0' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'the number of time intervals' d[k].more_doc = '' k = k + 1 d[k].name = 'n_energy_bands' d[k].class = 'hsi_obssummrate' d[k].units = 'N/A' d[k].default = '0' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'the number of energy bands' d[k].more_doc = '' k = k + 1 d[k].name = 'energy_edges' d[k].class = 'hsi_obssummrate' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'the energy bin edges' d[k].more_doc = '' k = k + 1 d[k].name = 'dim1_unit' d[k].class = 'hsi_obssummrate' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = '"Energy edges (keV)" an identifying string' d[k].more_doc = '' k = k + 1 d[k].name = 'dim1_ids' d[k].class = 'hsi_obssummrate' d[k].units = 'N/A' d[k].default = '' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'The energy bins in string format' d[k].more_doc = '' ; Info parameters for hsi_simulation k = k + 1 d[k].name = 'sim_out_time_unit' d[k].class = 'hsi_simulation' d[k].units = 'N/A' d[k].default = '0' d[k].range = '' d[k].level = 'N/A' d[k].purpose = '' d[k].more_doc = '' k = k + 1 d[k].name = 'sim_ut_ref' d[k].class = 'hsi_simulation' d[k].units = 'ANYTIM' d[k].default = '0.0' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Reference time' d[k].more_doc = '' ; Info parameters for hsi_memvis k = k + 1 d[k].name = 'vis_lambda' d[k].class = 'hsi_memvis' d[k].units = 'N/A' d[k].default = '--' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Final value of lambda' d[k].more_doc = '' k = k + 1 d[k].name = 'vis_iter' d[k].class = 'hsi_memvis' d[k].units = 'N/A' d[k].default = '--' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Final value of iterations at last lambda' d[k].more_doc = '' k = k + 1 d[k].name = 'vis_chi2' d[k].class = 'hsi_memvis' d[k].units = 'N/A' d[k].default = '--' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Final value of chi^2' d[k].more_doc = '' k = k + 1 d[k].name = 'vis_delta' d[k].class = 'hsi_memvis' d[k].units = 'N/A' d[k].default = '--' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Final value of delta' d[k].more_doc = '' k = k + 1 d[k].name = 'vis_btot' d[k].class = 'hsi_memvis' d[k].units = 'N/A' d[k].default = '--' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Final value of btot, the total brightness' d[k].more_doc = '' ; Info parameters for hsi_mem_sato k = k + 1 d[k].name = 'sato_lambda' d[k].class = 'hsi_mem_sato' d[k].units = 'N/A' d[k].default = '--' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Final value of lambda' d[k].more_doc = '' k = k + 1 d[k].name = 'sato_iter' d[k].class = 'hsi_mem_sato' d[k].units = 'N/A' d[k].default = '--' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Final value of iterations at last lambda' d[k].more_doc = '' k = k + 1 d[k].name = 'sato_chi2' d[k].class = 'hsi_mem_sato' d[k].units = 'N/A' d[k].default = '--' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Final value of chi^2' d[k].more_doc = '' k = k + 1 d[k].name = 'sato_delta' d[k].class = 'hsi_mem_sato' d[k].units = 'N/A' d[k].default = '--' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Final value of delta' d[k].more_doc = '' k = k + 1 d[k].name = 'sato_btot' d[k].class = 'hsi_mem_sato' d[k].units = 'N/A' d[k].default = '--' d[k].range = '' d[k].level = 'N/A' d[k].purpose = 'Final value of btot, the total brightness' d[k].more_doc = '' d = d[0:k] end