nasa cdf (version 3) {
// global attributes:
		:Project = "LWS>Living With a Star" ;
		:Source_name = "RBSP-B>Radiation Belt Storm Probe B" ;
		:Discipline = "Space Physics>Magnetospheric Science" ;
		:Data_type = "pre>Preliminary" ;
		:Descriptor = "ect-mageis-L2>ECT Magnetic Electron Ion Spectrometer Level 2" ;
		:Data_version = "01" ;
		:PI_name = "J. Bernard Blake (JBernard.Blake@aero.org)" ;
		:PI_affiliation = "The Aerospace Corporation" ;
		:TEXT = "MagEIS consists of 4 energetic particle sensors per RBSP spacecraft: low unit, medium35 unit, medium75 unit and the high unit.  The low and 2 medium units are magnetic spectrometers that measure electrons across roughly the 20 keV - 1 MeV energy range. The high unit contains a magnetic spectrometer that measures electrons from roughly the 700 keV to 4 MeV range. The high unit also has a proton telescope that measures protons from roughly 50 keV to 20 MeV, Helium ions from roughly 300 keV - 1.5 MeV and Oxygen ions from roughly 1-5 MeV.  MagEIS is one of three instrument packages on the ECT instrument suite (HOPE and REPT are the others)." ;
		:Instrument_type = "Particles (space)" ;
		:Mission_group = "RBSP" ;
		:Logical_source = "RBSP-B_L2_MagEIS" ;
		:Logical_file_id = "rbsp-a_pre_ect-mageis-l2_00000000_v01" ;
		:Logical_source_description = "rbsp-a_ect-mageis-l2_pre" ;
		:Parents = "none" ;
		:File_naming_convention = "source_datatype_descriptor_yyyyMMdd" ;
// variable attributes, one line per entry (which variable each belongs to is not shown):
		AVG_TYPE = "standard" ;
		AVG_TYPE = "standard" ;
		AVG_TYPE = "standard" ;
		AVG_TYPE = "standard" ;
		AVG_TYPE = "standard" ;
		AVG_TYPE = "standard" ;
		AVG_TYPE = "angle_hour" ;
		AVG_TYPE = "log" ;
		AVG_TYPE = "log" ;
		AVG_TYPE = "log" ;
		AVG_TYPE = "log" ;
		AVG_TYPE = "log" ;
		CATDESC = "Default time" ;
		CATDESC = "Default time for proton data" ;
		CATDESC = "Position of the satellite in geographic coordinates" ;
		CATDESC = "Position labels" ;
		CATDESC = "Position Quality flag" ;
		CATDESC = "Calculated magnetic field strength" ;
		CATDESC = "Calculated magnetic field strength at magnetic equator" ;
		CATDESC = "Calculated McIlwains L parameter (Earths radii)" ;
		CATDESC = "Calculated Roederers L* parameter (Earths radii)" ;
		CATDESC = "Adiabatic invariant (bounce)" ;
		CATDESC = "Calculated Magnetic Local Time (hours)" ;
		CATDESC = "Spin-Averaged Differential Electron Flux" ;
		CATDESC = "FESA Quality flag" ;
		CATDESC = "Crosscalibration factors for FESA" ;
		CATDESC = "Energy centroids for FEDU" ;
		CATDESC = "Energy widths for FEDU" ;
		CATDESC = "Energy channels" ;
		CATDESC = "FEDU_Energy_DELTA_minus" ;
		CATDESC = "FEDU_Energy_DELTA_plus" ;
		CATDESC = "Spin-Averaged Differential Proton Flux" ;
		CATDESC = "FPSA Quality flag" ;
		CATDESC = "Crosscalibration factors for FPSA" ;
		CATDESC = "Unidirectional Differential Proton Flux" ;
		CATDESC = "Energy centroids for FPDU" ;
		CATDESC = "Sector angles for FPDU" ;
		CATDESC = "FPDU Quality flag" ;
		CATDESC = "Crosscalibration factors for FPDU" ;
		CATDESC = "Energy widths for FPDU" ;
		CATDESC = "Energy channels" ;
		CATDESC = "Sector angle bin labels for FPDU" ;
		CATDESC = "FPDU_Energy_DELTA_minus" ;
		CATDESC = "FPDU_Energy_DELTA_plus" ;
		CATDESC = "Geometric factors for electron chans" ;
		CATDESC = "Efficiencies for electron chans" ;
		CATDESC = "Geometric factors for proton chans" ;
		CATDESC = "Efficiencies for proton chans" ;
		CATDESC = "FPDU_ERROR" ;
		CATDESC = "Spin-Averaged Differential Electron Flux (background corrected)" ;
		CATDESC = "FPDU Quality flag (Full)" ;
		CATDESC = "BKG_TO_MAIN_RATIO_SPINAVG" ;
		CATDESC = "FESA_ERROR" ;
		CATDESC = "FESA_CORR_ERROR" ;
		CATDESC = "FPSA_ERROR" ;
		CATDESC = "COINCIDENCE_MODE" ;
		CATDESC = "INSTRUMENT_MODE" ;
		CATDESC = "BIAS_MODE" ;
		CATDESC = "Spin-Averaged Differential Proton Flux" ;
		CATDESC = "FPSA_pix1 Quality flag" ;
		CATDESC = "Crosscalibration factors for FPSA_pix1" ;
		CATDESC = "Unidirectional Differential Proton Flux" ;
		CATDESC = "Energy centroids for FPDU_pix1" ;
		CATDESC = "Sector angles for FPDU_pix1" ;
		CATDESC = "FPDU_pix1 Quality flag" ;
		CATDESC = "Crosscalibration factors for FPDU_pix1" ;
		CATDESC = "Energy widths for FPDU_pix1" ;
		CATDESC = "Energy channels" ;
		CATDESC = "Sector angle bin labels for FPDU_pix1" ;
		CATDESC = "FPDU_pix1_Energy_DELTA_minus" ;
		CATDESC = "FPDU_pix1_Energy_DELTA_minus" ;
		CATDESC = "Spin-Averaged Differential Proton Flux" ;
		CATDESC = "FPSA_pix2 Quality flag" ;
		CATDESC = "Crosscalibration factors for FPSA_pix2" ;
		CATDESC = "Unidirectional Differential Proton Flux" ;
		CATDESC = "Energy centroids for FPDU_pix2" ;
		CATDESC = "Sector angles for FPDU_pix2" ;
		CATDESC = "FPDU_pix2 Quality flag" ;
		CATDESC = "Crosscalibration factors for FPDU_pix2" ;
		CATDESC = "Energy widths for FPDU_pix2" ;
		CATDESC = "Energy channels" ;
		CATDESC = "Sector angle bin labels for FPDU_pix2" ;
		CATDESC = "FPDU_pix2_Energy_DELTA_minus" ;
		CATDESC = "FPDU_pix2_Energy_DELTA_minus" ;
		CATDESC = "FPSA_pix1_ERROR" ;
		CATDESC = "FPSA_pix2_ERROR" ;
		CATDESC = "FPDU_pix1_ERROR" ;
		CATDESC = "FPDU_pix2_ERROR" ;
		DEPEND_0 = "Epoch" ;
		DEPEND_0 = "Epoch" ;
		DEPEND_0 = "Epoch" ;
		DEPEND_0 = "Epoch" ;
		DEPEND_0 = "Epoch" ;
		DEPEND_0 = "Epoch" ;
		DEPEND_0 = "Epoch" ;
		DEPEND_0 = "Epoch" ;
		DEPEND_0 = "Epoch" ;
		DEPEND_0 = "Epoch" ;
		DEPEND_0 = "Epoch_prot" ;
		DEPEND_0 = "Epoch_prot" ;
		DEPEND_0 = "Epoch_prot" ;
		DEPEND_0 = "Epoch_prot" ;
		DEPEND_0 = "Epoch_prot" ;
		DEPEND_0 = "Epoch" ;
		DEPEND_0 = "Epoch" ;
		DEPEND_0 = "Epoch_prot" ;
		DEPEND_0 = "Epoch_prot" ;
		DEPEND_0 = "Epoch_prot" ;
		DEPEND_0 = "Epoch" ;
		DEPEND_0 = "Epoch_prot" ;
		DEPEND_0 = "Epoch" ;
		DEPEND_0 = "Epoch" ;
		DEPEND_0 = "Epoch" ;
		DEPEND_0 = "Epoch_prot" ;
		DEPEND_0 = "Epoch" ;
		DEPEND_0 = "Epoch" ;
		DEPEND_0 = "Epoch" ;
		DEPEND_0 = "Epoch_prot" ;
		DEPEND_0 = "Epoch_prot" ;
		DEPEND_0 = "Epoch_prot" ;
		DEPEND_0 = "Epoch_prot" ;
		DEPEND_0 = "Epoch_prot" ;
		DEPEND_0 = "Epoch_prot" ;
		DEPEND_0 = "Epoch_prot" ;
		DEPEND_0 = "Epoch_prot" ;
		DEPEND_0 = "Epoch_prot" ;
		DEPEND_0 = "Epoch_prot" ;
		DEPEND_0 = "Epoch_prot" ;
		DEPEND_0 = "Epoch_prot" ;
		DEPEND_0 = "Epoch_prot" ;
		DEPEND_0 = "Epoch_prot" ;
		DEPEND_1 = "FEDU_Energy" ;
		DEPEND_1 = "FEDU_Energy" ;
		DEPEND_1 = "FPDU_Energy" ;
		DEPEND_1 = "FPDU_Energy" ;
		DEPEND_1 = "FPDU_Sector_Angle" ;
		DEPEND_1 = "FPDU_LABL_2" ;
		DEPEND_1 = "FPDU_Sector_Angle" ;
		DEPEND_1 = "FPDU_Sector_Angle" ;
		DEPEND_1 = "FEDU_Energy" ;
		DEPEND_1 = "FPDU_Sector_Angle" ;
		DEPEND_1 = "FEDU_Energy" ;
		DEPEND_1 = "FEDU_Energy" ;
		DEPEND_1 = "FEDU_Energy" ;
		DEPEND_1 = "FPDU_Energy" ;
		DEPEND_1 = "FEDU_Energy" ;
		DEPEND_1 = "FEDU_Energy" ;
		DEPEND_1 = "FEDU_Energy" ;
		DEPEND_1 = "FPDU_pix1_Energy" ;
		DEPEND_1 = "FPDU_pix1_Energy" ;
		DEPEND_1 = "FPDU_pix1_Sector_Angle" ;
		DEPEND_1 = "FPDU_pix1_LABL_2" ;
		DEPEND_1 = "FPDU_pix1_LABL_2" ;
		DEPEND_1 = "FPDU_pix2_Energy" ;
		DEPEND_1 = "FPDU_pix2_Energy" ;
		DEPEND_1 = "FPDU_pix2_Sector_Angle" ;
		DEPEND_1 = "FPDU_pix2_LABL_2" ;
		DEPEND_1 = "FPDU_pix2_LABL_2" ;
		DEPEND_1 = "FPDU_pix1_Energy" ;
		DEPEND_1 = "FPDU_pix2_Energy" ;
		DEPEND_1 = "FPDU_pix1_Sector_Angle" ;
		DEPEND_1 = "FPDU_pix2_Sector_Angle" ;
		DEPEND_2 = "FPDU_Energy" ;
		DEPEND_2 = "FPDU_Energy" ;
		DEPEND_2 = "FPDU_Energy" ;
		DEPEND_2 = "FPDU_Energy" ;
		DEPEND_2 = "FPDU_pix1_Energy" ;
		DEPEND_2 = "FPDU_pix1_LABL_1" ;
		DEPEND_2 = "FPDU_pix2_Energy" ;
		DEPEND_2 = "FPDU_pix2_LABL_1" ;
		DEPEND_2 = "FPDU_pix1_Energy" ;
		DEPEND_2 = "FPDU_pix2_Energy" ;
		DICT_KEY = "time>Epoch" ;
		DICT_KEY = "time>Epoch" ;
		DICT_KEY = "position>geographic" ;
		DICT_KEY = "label>position" ;
		DICT_KEY = "flag>quality" ;
		DICT_KEY = "magnetic_field>amplitude" ;
		DICT_KEY = "magnetic_field>amplitude" ;
		DICT_KEY = "particle_flux>electron-differential-omni-directional" ;
		DICT_KEY = "flag>quality" ;
		DICT_KEY = "ratio>particle_flux" ;
		DICT_KEY = "particle_flux>Proton-differential-omni-directional" ;
		DICT_KEY = "flag>quality" ;
		DICT_KEY = "ratio>particle_flux" ;
		DICT_KEY = "flag>quality" ;
		DICT_KEY = "ratio>particle_flux" ;
		DICT_KEY = "label>angle" ;
		DICT_KEY = "particle_flux>electron-differential-omni-directional" ;
		DICT_KEY = "flag>quality" ;
		DICT_KEY = "flag>quality" ;
		DICT_KEY = "flag>quality" ;
		DICT_KEY = "flag>quality" ;
		DICT_KEY = "flag>quality" ;
		DICT_KEY = "flag>quality" ;
		DICT_KEY = "flag>quality" ;
		DICT_KEY = "flag>quality" ;
		DICT_KEY = "particle_flux>Proton-differential-omni-directional" ;
		DICT_KEY = "flag>quality" ;
		DICT_KEY = "ratio>particle_flux" ;
		DICT_KEY = "flag>quality" ;
		DICT_KEY = "ratio>particle_flux" ;
		DICT_KEY = "label>angle" ;
		DICT_KEY = "particle_flux>Proton-differential-omni-directional" ;
		DICT_KEY = "flag>quality" ;
		DICT_KEY = "ratio>particle_flux" ;
		DICT_KEY = "flag>quality" ;
		DICT_KEY = "ratio>particle_flux" ;
		DICT_KEY = "label>angle" ;
		DICT_KEY = "flag>quality" ;
		DICT_KEY = "flag>quality" ;
		DISPLAY_TYPE = "time_series" ;
		DISPLAY_TYPE = "time_series" ;
		DISPLAY_TYPE = "time_series" ;
		DISPLAY_TYPE = "time_series" ;
		DISPLAY_TYPE = "time_series" ;
		DISPLAY_TYPE = "time_series" ;
		DISPLAY_TYPE = "time_series" ;
		DISPLAY_TYPE = "spectrogram" ;
		DISPLAY_TYPE = "spectrogram" ;
		DISPLAY_TYPE = "spectrogram" ;
		DISPLAY_TYPE = "spectrogram" ;
		DISPLAY_TYPE = "spectrogram" ;
		DISPLAY_TYPE = "spectrogram" ;
		DISPLAY_TYPE = "spectrogram" ;
		DISPLAY_TYPE = "spectrogram" ;
		DISPLAY_TYPE = "spectrogram" ;
		DISPLAY_TYPE = "spectrogram" ;
		DISPLAY_TYPE = "spectrogram" ;
		DISPLAY_TYPE = "spectrogram" ;
		DISPLAY_TYPE = "spectrogram" ;
		DISPLAY_TYPE = "spectrogram" ;
		DISPLAY_TYPE = "spectrogram" ;
		DISPLAY_TYPE = "spectrogram" ;
		DISPLAY_TYPE = "spectrogram" ;
		FIELDNAM = "Epoch" ;
		FIELDNAM = "Epoch" ;
		FIELDNAM = "Satellite position (GEO)" ;
		FIELDNAM = "Position_LABL_1" ;
		FIELDNAM = "Position_Quality" ;
		FIELDNAM = "Magnetic field strength" ;
		FIELDNAM = "Equatorial magnetic field strength" ;
		FIELDNAM = "McIlwains L parameter" ;
		FIELDNAM = "Roederers L* parameter" ;
		FIELDNAM = "Adiabatic invariant (bounce)" ;
		FIELDNAM = "Magnetic Local Time" ;
		FIELDNAM = "FESA" ;
		FIELDNAM = "FESA_Quality" ;
		FIELDNAM = "FESA Crosscalib" ;
		FIELDNAM = "FEDU_Energy" ;
		FIELDNAM = "FEDU_Energy_Widths" ;
		FIELDNAM = "FEDU_LABL_1" ;
		FIELDNAM = "FEDU_Energy_DELTA_minus" ;
		FIELDNAM = "FEDU_Energy_DELTA_plus" ;
		FIELDNAM = "FPSA" ;
		FIELDNAM = "FPSA_Quality" ;
		FIELDNAM = "FPSA Crosscalib" ;
		FIELDNAM = "FPDU" ;
		FIELDNAM = "FPDU_Energy" ;
		FIELDNAM = "FPDU_Sector_Angle" ;
		FIELDNAM = "FPDU_Quality" ;
		FIELDNAM = "FPDU Crosscalib" ;
		FIELDNAM = "FPDU_Energy_Widths" ;
		FIELDNAM = "FPDU_LABL_1" ;
		FIELDNAM = "FPDU_LABL_2" ;
		FIELDNAM = "FPDU_Energy_DELTA_minus" ;
		FIELDNAM = "FPDU_Energy_DELTA_plus" ;
		FIELDNAM = "GEOM_FACT_ELEC" ;
		FIELDNAM = "EFFCNCY_ELEC" ;
		FIELDNAM = "GEOM_FACT_PROT" ;
		FIELDNAM = "EFFCNCY_PROT" ;
		FIELDNAM = "FPDU_ERROR" ;
		FIELDNAM = "FESA_CORR" ;
		FIELDNAM = "FPDU_Quality" ;
		FIELDNAM = "BKG_TO_MAIN_RATIO_SPINAVG" ;
		FIELDNAM = "FESA_ERROR" ;
		FIELDNAM = "FESA_CORR_ERROR" ;
		FIELDNAM = "FPSA_ERROR" ;
		FIELDNAM = "COINCIDENCE_MODE" ;
		FIELDNAM = "INSTRUMENT_MODE" ;
		FIELDNAM = "BIAS_MODE" ;
		FIELDNAM = "FPSA_pix1" ;
		FIELDNAM = "FPSA_pix1_Quality" ;
		FIELDNAM = "FPSA_pix1 Crosscalib" ;
		FIELDNAM = "FPDU_pix1" ;
		FIELDNAM = "FPDU_pix1_Energy" ;
		FIELDNAM = "FPDU_pix1_Sector_Angle" ;
		FIELDNAM = "FPDU_pix1_Quality" ;
		FIELDNAM = "FPDU_pix1 Crosscalib" ;
		FIELDNAM = "FPDU_pix1_Energy_Widths" ;
		FIELDNAM = "FPDU_pix1_LABL_1" ;
		FIELDNAM = "FPDU_pix1_LABL_2" ;
		FIELDNAM = "FPDU_pix1_Energy_DELTA_minus" ;
		FIELDNAM = "FPDU_pix1_Energy_DELTA_minus" ;
		FIELDNAM = "FPSA_pix2" ;
		FIELDNAM = "FPSA_pix2_Quality" ;
		FIELDNAM = "FPSA_pix2 Crosscalib" ;
		FIELDNAM = "FPDU_pix2" ;
		FIELDNAM = "FPDU_pix2_Energy" ;
		FIELDNAM = "FPDU_pix2_Sector_Angle" ;
		FIELDNAM = "FPDU_pix2_Quality" ;
		FIELDNAM = "FPDU_pix2 Crosscalib" ;
		FIELDNAM = "FPDU_pix2_Energy_Widths" ;
		FIELDNAM = "FPDU_pix2_LABL_1" ;
		FIELDNAM = "FPDU_pix2_LABL_2" ;
		FIELDNAM = "FPDU_pix2_Energy_DELTA_minus" ;
		FIELDNAM = "FPDU_pix2_Energy_DELTA_minus" ;
		FIELDNAM = "FPSA_pix1_ERROR" ;
		FIELDNAM = "FPSA_pix2_ERROR" ;
		FIELDNAM = "FPDU_pix1_ERROR" ;
		FIELDNAM = "FPDU_pix2_ERROR" ;
		FILLVAL = (68 numeric entries, not shown) ;
		FORMAT = "E12.2" ;
		FORMAT = "A4" ;
		FORMAT = "I11" ;
		FORMAT = "E10.3" ;
		FORMAT = "E10.3" ;
		FORMAT = "E10.3" ;
		FORMAT = "E10.3" ;
		FORMAT = "E10.3" ;
		FORMAT = "E10.3" ;
		FORMAT = "E10.3" ;
		FORMAT = "I11" ;
		FORMAT = "E12.2" ;
		FORMAT = "E12.2" ;
		FORMAT = "E12.2" ;
		FORMAT = "A10" ;
		FORMAT = "E12.2" ;
		FORMAT = "E12.2" ;
		FORMAT = "E10.3" ;
		FORMAT = "I11" ;
		FORMAT = "E12.2" ;
		FORMAT = "E12.2" ;
		FORMAT = "E12.2" ;
		FORMAT = "E12.2" ;
		FORMAT = "I11" ;
		FORMAT = "E12.2" ;
		FORMAT = "E12.2" ;
		FORMAT = "A9" ;
		FORMAT = "A12" ;
		FORMAT = "E12.2" ;
		FORMAT = "E12.2" ;
		FORMAT = "E12.2" ;
		FORMAT = "E12.2" ;
		FORMAT = "E12.2" ;
		FORMAT = "E12.2" ;
		FORMAT = "I11" ;
		FORMAT = "E10.3" ;
		FORMAT = "I11" ;
		FORMAT = "I11" ;
		FORMAT = "I11" ;
		FORMAT = "I11" ;
		FORMAT = "I11" ;
		FORMAT = "I11" ;
		FORMAT = "I11" ;
		FORMAT = "I11" ;
		FORMAT = "E10.3" ;
		FORMAT = "I11" ;
		FORMAT = "E12.2" ;
		FORMAT = "E12.2" ;
		FORMAT = "E12.2" ;
		FORMAT = "E12.2" ;
		FORMAT = "I11" ;
		FORMAT = "E12.2" ;
		FORMAT = "E12.2" ;
		FORMAT = "A9" ;
		FORMAT = "A12" ;
		FORMAT = "E12.2" ;
		FORMAT = "E12.2" ;
		FORMAT = "E10.3" ;
		FORMAT = "I11" ;
		FORMAT = "E12.2" ;
		FORMAT = "E12.2" ;
		FORMAT = "E12.2" ;
		FORMAT = "E12.2" ;
		FORMAT = "I11" ;
		FORMAT = "E12.2" ;
		FORMAT = "E12.2" ;
		FORMAT = "A9" ;
		FORMAT = "A12" ;
		FORMAT = "E12.2" ;
		FORMAT = "E12.2" ;
		FORMAT = "I11" ;
		FORMAT = "I11" ;
		FORMAT = "I11" ;
		FORMAT = "I11" ;
		LABLAXIS = "Quality" ;
		LABLAXIS = "B" ;
		LABLAXIS = "B_Eq" ;
		LABLAXIS = "L" ;
		LABLAXIS = "L*" ;
		LABLAXIS = "I" ;
		LABLAXIS = "MLT" ;
		LABLAXIS = "flux" ;
		LABLAXIS = "Quality" ;
		LABLAXIS = "Crosscalibration factors" ;
		LABLAXIS = "Energy" ;
		LABLAXIS = "Energy Widths" ;
		LABLAXIS = "FEDU_LABL_3" ;
		LABLAXIS = "FEDU_Energy_DELTA_minus" ;
		LABLAXIS = "FEDU_Energy_DELTA_plus" ;
		LABLAXIS = "flux" ;
		LABLAXIS = "Quality" ;
		LABLAXIS = "Crosscalibration factors" ;
		LABLAXIS = "Flux" ;
		LABLAXIS = "Energy" ;
		LABLAXIS = "Sector_Angle" ;
		LABLAXIS = "Quality" ;
		LABLAXIS = "Crosscalibration factors" ;
		LABLAXIS = "Energy Widths" ;
		LABLAXIS = "FPDU_LABL_3" ;
		LABLAXIS = "FPDU_Energy_DELTA_minus" ;
		LABLAXIS = "FPDU_Energy_DELTA_plus" ;
		LABLAXIS = "Geometric Factor" ;
		LABLAXIS = "Efficiency" ;
		LABLAXIS = "Geometric Factor" ;
		LABLAXIS = "Efficiency" ;
		LABLAXIS = "PERCENT ERROR (FPDU)" ;
		LABLAXIS = "flux" ;
		LABLAXIS = "Quality" ;
		LABLAXIS = "Quality" ;
		LABLAXIS = "PERCENT ERROR (FESA)" ;
		LABLAXIS = "PERCENT ERROR (FESA_CORR)" ;
		LABLAXIS = "PERCENT ERROR (FPSA)" ;
		LABLAXIS = "COINCIDENCE_MODE" ;
		LABLAXIS = "INSTRUMENT_MODE" ;
		LABLAXIS = "BIAS_MODE" ;
		LABLAXIS = "flux" ;
		LABLAXIS = "Quality" ;
		LABLAXIS = "Crosscalibration factors" ;
		LABLAXIS = "Flux" ;
		LABLAXIS = "Energy" ;
		LABLAXIS = "Sector_Angle" ;
		LABLAXIS = "Quality" ;
		LABLAXIS = "Crosscalibration factors" ;
		LABLAXIS = "Energy Widths" ;
		LABLAXIS = "FPDU_pix1_LABL_3" ;
		LABLAXIS = "FPDU_pix1_Energy_DELTA_minus" ;
		LABLAXIS = "FPDU_pix1_Energy_DELTA_minus" ;
		LABLAXIS = "flux" ;
		LABLAXIS = "Quality" ;
		LABLAXIS = "Crosscalibration factors" ;
		LABLAXIS = "Flux" ;
		LABLAXIS = "Energy" ;
		LABLAXIS = "Sector_Angle" ;
		LABLAXIS = "Quality" ;
		LABLAXIS = "Crosscalibration factors" ;
		LABLAXIS = "Energy Widths" ;
		LABLAXIS = "FPDU_pix2_LABL_3" ;
		LABLAXIS = "FPDU_pix2_Energy_DELTA_minus" ;
		LABLAXIS = "FPDU_pix2_Energy_DELTA_minus" ;
		LABLAXIS = "PERCENT ERROR (FPSA_pix1)" ;
		LABLAXIS = "PERCENT ERROR (FPSA_pix2)" ;
		LABLAXIS = "PERCENT ERROR (FPDU_pix1)" ;
		LABLAXIS = "PERCENT ERROR (FPDU_pix2)" ;
		LABL_PTR_1 = "Position_LABL_1" ;
		LABL_PTR_1 = "FEDU_LABL_1" ;
		LABL_PTR_1 = "FEDU_LABL_1" ;
		LABL_PTR_1 = "FPDU_LABL_1" ;
		LABL_PTR_1 = "FPDU_LABL_1" ;
		LABL_PTR_1 = "FPDU_LABL_2" ;
		LABL_PTR_1 = "FPDU_LABL_2" ;
		LABL_PTR_1 = "FPDU_LABL_2" ;
		LABL_PTR_1 = "FEDU_LABL_1" ;
		LABL_PTR_1 = "FEDU_LABL_1" ;
		LABL_PTR_1 = "FEDU_LABL_1" ;
		LABL_PTR_1 = "FPDU_LABL_1" ;
		LABL_PTR_1 = "FEDU_LABL_1" ;
		LABL_PTR_1 = "FEDU_LABL_1" ;
		LABL_PTR_1 = "FEDU_LABL_1" ;
		LABL_PTR_1 = "FPDU_pix1_LABL_1" ;
		LABL_PTR_1 = "FPDU_pix1_LABL_2" ;
		LABL_PTR_1 = "FPDU_pix2_LABL_1" ;
		LABL_PTR_1 = "FPDU_pix2_LABL_2" ;
		LABL_PTR_1 = "FPDU_pix1_LABL_1" ;
		LABL_PTR_1 = "FPDU_pix2_LABL_1" ;
		LABL_PTR_1 = "FPDU_pix1_LABL_2" ;
		LABL_PTR_1 = "FPDU_pix2_LABL_2" ;
		QUALITY_VAR = "FESA_Quality" ;
		QUALITY_VAR = "FPSA_Quality" ;
		QUALITY_VAR = "FESA_Quality" ;
		QUALITY_VAR = "FPSA_pix1_Quality" ;
		QUALITY_VAR = "FPSA_pix2_Quality" ;
		SCALETYP = "linear" ;
		SCALETYP = "linear" ;
		SCALETYP = "linear" ;
		SCALETYP = "linear" ;
		SCALETYP = "linear" ;
		SCALETYP = "linear" ;
		SCALETYP = "linear" ;
		SCALETYP = "linear" ;
		SCALETYP = "linear" ;
		SCALETYP = "log" ;
		SCALETYP = "linear" ;
		SCALETYP = "log" ;
		SCALETYP = "linear" ;
		SCALETYP = "linear" ;
		SCALETYP = "linear" ;
		SCALETYP = "log" ;
		SCALETYP = "linear" ;
		SCALETYP = "log" ;
		SCALETYP = "log" ;
		SCALETYP = "linear" ;
		SCALETYP = "linear" ;
		SCALETYP = "linear" ;
		SCALETYP = "linear" ;
		SCALETYP = "linear" ;
		SCALETYP = "linear" ;
		SCALETYP = "linear" ;
		SCALETYP = "linear" ;
		SCALETYP = "linear" ;
		SCALETYP = "log" ;
		SCALETYP = "linear" ;
		SCALETYP = "linear" ;
		SCALETYP = "linear" ;
		SCALETYP = "linear" ;
		SCALETYP = "linear" ;
		SCALETYP = "linear" ;
		SCALETYP = "log" ;
		SCALETYP = "log" ;
		SCALETYP = "log" ;
		SCALETYP = "linear" ;
		SCALETYP = "linear" ;
		SCALETYP = "linear" ;
		SCALETYP = "linear" ;
		SCALETYP = "log" ;
		SCALETYP = "log" ;
		SCALETYP = "log" ;
		SCALETYP = "linear" ;
		SCALETYP = "linear" ;
		SCALETYP = "linear" ;
		SCALETYP = "linear" ;
		SCALETYP = "linear" ;
		SCALETYP = "linear" ;
		SCALETYP = "linear" ;
		SCALETYP = "linear" ;
		SI_conversion = "1.0e3>s" ;
		SI_conversion = "1.0e3>s" ;
		SI_conversion = "1.0e-3>m" ;
		SI_conversion = "1.0e9>T" ;
		SI_conversion = "1.0e9>T" ;
		SI_conversion = "1.5696e-7>m" ;
		SI_conversion = "1.5696e-7>m" ;
		SI_conversion = "none" ;
		SI_conversion = "2.778e-4>s" ;
		SI_conversion = "1.602e-17>m^-2 s^-1 sr^-1 J^-1" ;
		SI_conversion = "none" ;
		SI_conversion = "1.602e-17>m^-2 s^-1 sr^-1 J^-1" ;
		SI_conversion = "none" ;
		SI_conversion = "none" ;
		SI_conversion = "1.602e-17>m^-2 s^-1 sr^-1 J^-1" ;
		SI_conversion = "1.602e-17>m^-2 s^-1 sr^-1 J^-1" ;
		SI_conversion = "none" ;
		SI_conversion = "none" ;
		SI_conversion = "1.602e-17>m^-2 s^-1 sr^-1 J^-1" ;
		SI_conversion = "none" ;
		SI_conversion = "none" ;
		UNITS = "ms" ;
		UNITS = "ms" ;
		UNITS = "km" ;
		UNITS = "none" ;
		UNITS = "nT" ;
		UNITS = "nT" ;
		UNITS = "R_E" ;
		UNITS = "R_E" ;
		UNITS = "none" ;
		UNITS = "h" ;
		UNITS = "cm!U-2!N s!U-1!N sr!U-1!N keV!U-1!N" ;
		UNITS = "none" ;
		UNITS = "none" ;
		UNITS = "keV" ;
		UNITS = "keV" ;
		UNITS = "keV" ;
		UNITS = "keV" ;
		UNITS = "cm!U-2!N s!U-1!N sr!U-1!N keV!U-1!N" ;
		UNITS = "none" ;
		UNITS = "none" ;
		UNITS = "cm!U-2!N s!U-1!N sr!U-1!N keV!U-1!N" ;
		UNITS = "keV" ;
		UNITS = "deg" ;
		UNITS = "none" ;
		UNITS = "none" ;
		UNITS = "keV" ;
		UNITS = "keV" ;
		UNITS = "keV" ;
		UNITS = "cm!U2!N sr" ;
		UNITS = "dimensionless" ;
		UNITS = "cm!U2!N sr" ;
		UNITS = "dimensionless" ;
		UNITS = "%" ;
		UNITS = "cm!U-2!N s!U-1!N sr!U-1!N keV!U-1!N" ;
		UNITS = "none" ;
		UNITS = "%" ;
		UNITS = "%" ;
		UNITS = "%" ;
		UNITS = "%" ;
		UNITS = "0=disabled;1=enabled" ;
		UNITS = "0=MAINT;1=SCI;2=HIGHRATE" ;
		UNITS = "0=low-bias;1=normal-bias" ;
		UNITS = "cm!U-2!N s!U-1!N sr!U-1!N keV!U-1!N" ;
		UNITS = "none" ;
		UNITS = "none" ;
		UNITS = "cm!U-2!N s!U-1!N sr!U-1!N keV!U-1!N" ;
		UNITS = "keV" ;
		UNITS = "deg" ;
		UNITS = "none" ;
		UNITS = "none" ;
		UNITS = "keV" ;
		UNITS = "keV" ;
		UNITS = "keV" ;
		UNITS = "cm!U-2!N s!U-1!N sr!U-1!N keV!U-1!N" ;
		UNITS = "none" ;
		UNITS = "none" ;
		UNITS = "cm!U-2!N s!U-1!N sr!U-1!N keV!U-1!N" ;
		UNITS = "keV" ;
		UNITS = "deg" ;
		UNITS = "none" ;
		UNITS = "none" ;
		UNITS = "keV" ;
		UNITS = "keV" ;
		UNITS = "keV" ;
		UNITS = "%" ;
		UNITS = "%" ;
		UNITS = "%" ;
		UNITS = "%" ;
		VALIDMIN = (68 numeric entries, not shown) ;
		VALIDMAX = (68 numeric entries, not shown) ;
		VAR_TYPE = "support_data" ;
		VAR_TYPE = "support_data" ;
		VAR_TYPE = "data" ;
		VAR_TYPE = "metadata" ;
		VAR_TYPE = "support_data" ;
		VAR_TYPE = "data" ;
		VAR_TYPE = "data" ;
		VAR_TYPE = "data" ;
		VAR_TYPE = "data" ;
		VAR_TYPE = "data" ;
		VAR_TYPE = "data" ;
		VAR_TYPE = "data" ;
		VAR_TYPE = "data" ;
		VAR_TYPE = "support_data" ;
		VAR_TYPE = "support_data" ;
		VAR_TYPE = "support_data" ;
		VAR_TYPE = "metadata" ;
		VAR_TYPE = "support_data" ;
		VAR_TYPE = "support_data" ;
		VAR_TYPE = "data" ;
		VAR_TYPE = "data" ;
		VAR_TYPE = "support_data" ;
		VAR_TYPE = "data" ;
		VAR_TYPE = "support_data" ;
		VAR_TYPE = "support_data" ;
		VAR_TYPE = "data" ;
		VAR_TYPE = "support_data" ;
		VAR_TYPE = "support_data" ;
		VAR_TYPE = "metadata" ;
		VAR_TYPE = "metadata" ;
		VAR_TYPE = "support_data" ;
		VAR_TYPE = "support_data" ;
		VAR_TYPE = "support_data" ;
		VAR_TYPE = "support_data" ;
		VAR_TYPE = "support_data" ;
		VAR_TYPE = "support_data" ;
		VAR_TYPE = "support_data" ;
		VAR_TYPE = "data" ;
		VAR_TYPE = "support_data" ;
		VAR_TYPE = "support_data" ;
		VAR_TYPE = "data" ;
		VAR_TYPE = "data" ;
		VAR_TYPE = "data" ;
		VAR_TYPE = "data" ;
		VAR_TYPE = "data" ;
		VAR_TYPE = "data" ;
		VAR_TYPE = "support_data" ;
		VAR_TYPE = "support_data" ;
		VAR_TYPE = "support_data" ;
		VAR_TYPE = "support_data" ;
		VAR_TYPE = "support_data" ;
		VAR_TYPE = "support_data" ;
		VAR_TYPE = "support_data" ;
		VAR_TYPE = "support_data" ;
		VAR_TYPE = "support_data" ;
		VAR_TYPE = "metadata" ;
		VAR_TYPE = "metadata" ;
		VAR_TYPE = "support_data" ;
		VAR_TYPE = "support_data" ;
		VAR_TYPE = "support_data" ;
		VAR_TYPE = "support_data" ;
		VAR_TYPE = "support_data" ;
		VAR_TYPE = "support_data" ;
		VAR_TYPE = "support_data" ;
		VAR_TYPE = "support_data" ;
		VAR_TYPE = "support_data" ;
		VAR_TYPE = "support_data" ;
		VAR_TYPE = "support_data" ;
		VAR_TYPE = "metadata" ;
		VAR_TYPE = "metadata" ;
		VAR_TYPE = "support_data" ;
		VAR_TYPE = "support_data" ;
		VAR_TYPE = "support_data" ;
		VAR_TYPE = "support_data" ;
		VAR_TYPE = "support_data" ;
		VAR_TYPE = "support_data" ;
		VAR_NOTES = "Epoch, UTC" ;
		VAR_NOTES = "Epoch, UTC for the proton data" ;
		VAR_NOTES = "Origin = Earths center of mass. X = Intersection of Greenwich meridian and geographic equator. Z = Geographic North Pole. Y = completes a right-handed Cartesian triad" ;
		VAR_NOTES = "0 denotes highest quality." ;
		VAR_NOTES = "Calculated using ONERA-DESP library Internal field: DGRF/IGRF External field: Olson & Pfitzer quiet Calculated with LANLGeomag library. Internal field: IGRF. External field: OP77Q. Calculated with LANLGeomag library. Internal field: IGRF. External field: OP77Q." ;
		VAR_NOTES = "Calculated using ONERA-DESP library Internal field: DGRF/IGRF External field: Olson & Pfitzer quiet Calculated with LANLGeomag library. Internal field: IGRF. External field: OP77Q. Calculated with LANLGeomag library. Internal field: IGRF. External field: OP77Q." ;
		VAR_NOTES = "Calculated using ONERA-DESP library Internal field: DGRF/IGRF External field: Olson & Pfitzer quiet Calculated with LANLGeomag library. Internal field: IGRF. External field: OP77Q. Calculated with LANLGeomag library. Internal field: IGRF. External field: OP77Q." ;
		VAR_NOTES = "Calculated using ONERA-DESP library Internal field: DGRF/IGRF External field: Olson & Pfitzer quiet Calculated with LANLGeomag library. Internal field: IGRF. External field: OP77Q. Calculated with LANLGeomag library. Internal field: IGRF. External field: OP77Q." ;
		VAR_NOTES = "Calculated using ONERA-DESP library Internal field: DGRF/IGRF External field: Olson & Pfitzer quiet Calculated with LANLGeomag library. Internal field: IGRF. External field: OP77Q. Calculated with LANLGeomag library. Internal field: IGRF. External field: OP77Q." ;
		VAR_NOTES = "Calculated using ONERA-DESP library Internal field: DGRF/IGRF External field: Olson & Pfitzer quiet Calculated with LANLGeomag library. Internal field: IGRF. External field: OP77Q. Calculated with LANLGeomag library. Internal field: IGRF. External field: OP77Q." ;
		VAR_NOTES = "Spin-Averaged Differential Electron Flux (FESA). These data are obtained by averaging the sectored fluxes over the data accumulation time (a spin-set, nominally equal to 1 spin). Thus, it is not an omni-directional flux, but rather a spin-set-averaged flux. Dimension 1 is for the 25 magEIS energy channels. The energy channel centroids are specified in FESA_Energy. The channel widths are specified in FESA_Energy_Widths." ;
		VAR_NOTES = "Red/Yellow/Green Flag. 2=Red (use data with extreme caution), 1=Yellow (use data with caution), 0=Green (no known data issues). ..RED.1. F less-than dF.  Data is set to 0..2. dF / F greater-than 1.0 (i.e. F less-than 1.0 * dF).  Low counts, large error, or both..3. Detector bias is disabled (i.e. in the low-bias state)..4. Livetime less-than 60%...YELLOW.1. Background correction was not performed. .2. dF / F greater-than 0.5 (i.e. F less-than 2.0 * dF).  Low counts, large error, or both..3. Detector coincidence is disabled (HIGHe only)..4. Livetime correction was not done (main rates and histograms)..5. There was no housekeeping and/or digital status data available (i.e. the test pulser status is  unknown, the detector bias status unknown, etc..)...GREEN.No 'bad' flags set. Data is valid to the best of our knowledge." ;
		VAR_NOTES = "none" ;
		VAR_NOTES = "MagEIS energy channel centroids." ;
		VAR_NOTES = "MagEIS energy channel widths." ;
		VAR_NOTES = "Spin-Averaged Differential Proton Flux (FPSA). These data are obtained by averaging the sectored fluxes over the data accumulation time (a spin-set, nominally equal to 1 spin). Thus, it is not an omni-directional flux, but rather a spin-set-averaged flux. Dimension 1 is for the 31 magEIS energy channels. If less than 31 channels are used the remaining channel dimensions are set to fill values. The energy channel centroids are specified in FPSA_Energy. The channel widths are specified in FPSA_Energy_Widths." ;
		VAR_NOTES = "Red/Yellow/Green Flag. 2=Red (use data with extreme caution), 1=Yellow (use data with caution), 0=Green (no known data issues). ..RED.1. F less-than dF.  Data is set to 0..2. dF / F greater-than 1.0 (i.e. F less-than 1.0 * dF).  Low counts, large error, or both..3. Detector bias is disabled (i.e. in the low-bias state)..4. Livetime less-than 60%...YELLOW.1. Background correction was not performed. .2. dF / F greater-than 0.5 (i.e. F less-than 2.0 * dF).  Low counts, large error, or both..3. Detector coincidence is disabled (HIGHe only)..4. Livetime correction was not done (main rates and histograms)..5. There was no housekeeping and/or digital status data available (i.e. the test pulser status is  unknown, the detector bias status unknown, etc..)...GREEN.No 'bad' flags set. Data is valid to the best of our knowledge." ;
		VAR_NOTES = "none" ;
		VAR_NOTES = "Unidirectional Differential Proton Flux (FPDU). Dimension 1 is for the 31 magEIS energy channels. The energy channel centroids are specified in FPDU_Energy. The channel widths are specified in FPDU_Energy_Widths.If less than 31 channels are used the remaining channel dimensions are set to fill values. Dimension 2 is for the 64 sector angles. Here, the dimension size of 64 is the maximum number of possible sectors. If less than 64 are being used, the data are set to fill values of -1.0E31. The sector angle values for valid (non-fill) sectors are given in FPDU_Sector_Angle." ;
		VAR_NOTES = "MagEIS energy channel centroids. These channels are the 31 \"main rate\" channels.If less than 31 channels are used the remaining channel dimensions are set to fill values." ;
		VAR_NOTES = "Sector angles, in degrees. The dimension size of 64 is the maximum number of possible sectors. If less than 64 are being used, the data are set to fill values of -1.0e+31. The angle is the start angle of the sector." ;
		VAR_NOTES = "Red/Yellow/Green Flag. 2=Red (use data with extreme caution), 1=Yellow (use data with caution), 0=Green (no known data issues). ..RED.1. F less-than dF.  Data is set to 0..2. dF / F greater-than 1.0 (i.e. F less-than 1.0 * dF).  Low counts, large error, or both..3. Detector bias is disabled (i.e. in the low-bias state)..4. Livetime less-than 60%...YELLOW.1. Background correction was not performed. .2. dF / F greater-than 0.5 (i.e. F less-than 2.0 * dF).  Low counts, large error, or both..3. Detector coincidence is disabled (HIGHe only)..4. Livetime correction was not done (main rates and histograms)..5. There was no housekeeping and/or digital status data available (i.e. the test pulser status is  unknown, the detector bias status unknown, etc..)...GREEN.No 'bad' flags set. Data is valid to the best of our knowledge." ;
		VAR_NOTES = "none" ;
		VAR_NOTES = "MagEIS energy channel widths. These are the 31 \"main rate\" channels.If less than 31 channels are used the remaining channel dimensions are set to fill values." ;
		VAR_NOTES = "Electron channel geometric factors." ;
		VAR_NOTES = "Electron channel efficiencies." ;
		VAR_NOTES = "Proton channel geometric factors." ;
		VAR_NOTES = "Proton channel efficiencies." ;
		VAR_NOTES = "Estimate of the percent error in the proton flux.  The percent error is defined as a relative error: d(Flux)/Flux, where Flux is the proton flux." ;
		VAR_NOTES = "Spin-Averaged Differential Electron Flux (FESA). These data are obtained by averaging the sectored fluxes over the data accumulation time (a spin-set, nominally equal to 1 spin). Thus, it is not an omni-directional flux, but rather a spin-set-averaged flux. Dimension 1 is for the 25 magEIS energy channels. The energy channel centroids are specified in FESA_Energy. The channel widths are specified in FESA_Energy_Widths." ;
		VAR_NOTES = "32-bit flag position. Quality flag is a long int. This is the bit-position that is set (from right to left).....0,Background correction was not done (main channels).1,The test pulser was on at the current time..2,The detector biases were disabled at the current time..3,An engineering look-up-table was used for the main and/or derived channel data at the current time. NOTE THAT THE CHANNEL MAPPING IS INVALID HERE..4,The front detectors were selected at the current time (high unit electron only)..5,The data was set to fill as instructed by the calibration file..6,There was no housekeeping and/or digital status data found. The bias status, pulser status, etc... is not known..7,There are no main channels defined at the current time.8,There are no derived channels defined at the current time.9,A validity check failed in the flux conversion. This usually indicates that an engineering look-up-table was selected at the current time..10,A calibration file could not be found for the current look-up-table ID. NOTE THAT THE CHANNEL MAPPING IS INVALID HERE..11,Data was not found at the current time for at least one of LOW, MED, HIGH (defined for combined L2 product only).12,These channels are not defined for this pixel (HIGH proton only).13,The coincidence was disabled at the current time (high unit electron only)..14,Livetime correction not applied (main rate): Unknown reason.15,dQ/Q greater-than 0.5; Warning. Counts are low and/or error estimate is large.16,Livetime correction not applied (histogram): Unknown reason.17,Background correction was not done (derived channels).18,The number of sectors changed (nsectors)..19,The accumulation interval changed (nspins)..20,The LUT changed..21,Livetime correction not applied (main rate): The livetime value failed the valid bounds check. This indicates an issue and the data is set to fill..22,Livetime correction not applied (main rate): pixel-to-channel mapping is invalid.23,Livetime correction not applied (main rate): nsectors_main not equal to nsectors_LT.24,Livetime correction not applied (main rate): next METs not equal.25,Livetime correction not applied (main rate): matching METs not found.26,Livetime correction not applied (main rate): could not determine if front or rear detectors were selected (HIGH electron data only).27,Livetime correction applied, with warning (main rate): min LT in this spin is less than 60%.28,Livetime correction not applied (main rate): no LT data.29,dQ/Q greater-than 1.0; Warning. Counts are very low and/or error estimate is very large.30,Unit is in sample mode at the given time (i.e. background corrections cannot be done)..31,UNUSED" ;
		VAR_NOTES = "Ratio of the background estimate divided by the main rate rate, for the spin-averaged data. This gives an estimate of the level of background contamination in the main rate data (large % = high background) and/or how close the main rate data is to the background level (large % = low counts)." ;
		VAR_NOTES = "Estimate of the percent error in the uncorrected electron flux.  The percent error is defined as a relative error: d(Flux)/Flux, where Flux is the uncorrected electron flux." ;
		VAR_NOTES = "Estimate of the percent error in the background corrected electron flux.  The percent error is defined as a relative error: d(Flux)/Flux, where Flux is the background corrected electron flux." ;
		VAR_NOTES = "Estimate of the percent error in the proton flux.  The percent error is defined as a relative error: d(Flux)/Flux, where Flux is the proton flux." ;
		VAR_NOTES = "Flag to indicate whether or not the electron coincidence is enabled (0=disabled; 1=enabled). This variable is only defined for the HIGH unit (~850-4000 keV), as this is the only MagEIS unit with coincidence. In the disabled coincidence state, the electron fluxes should only be used qualitatively, and with caution." ;
		VAR_NOTES = "Flag to indicate mode of the MagEIS instruments (0=maintenance; 1=science; 2=high rate). Only the LOW and MED units (~20-1000 keV) can go into high rate mode. The HIGH unit (~850-4000 keV), can only be in maintenance or science mode. The most common reason why background corrections cannot be done (e.g. FESA_CORR, FEDU_CORR are fill) is when the LOW and/or MED units are in high-rate mode." ;
		VAR_NOTES = "Flag to indicate whether or not the electron detectors are in the normal-bias or low-bias state (0=low bias; 1=normal bias). In the low-bias state, the electron fluxes should only be used qualitatively, and with caution." ;
		VAR_NOTES = "Spin-Averaged Differential Proton Flux (FPSA_pix1). These data are obtained by averaging the sectored fluxes over the data accumulation time (a spin-set, nominally equal to 1 spin). Thus, it is not an omni-directional flux, but rather a spin-set-averaged flux. Dimension 1 is for the 31 magEIS energy channels. If less than 31 channels are used the remaining channel dimensions are set to fill values. The energy channel centroids are specified in FPSA_pix1_Energy. The channel widths are specified in FPSA_pix1_Energy_Widths." ;
		VAR_NOTES = "-1: This indicates that the flag was not set properly.  ..0: No known quality issues with data....1: The test pulser was on at the current time....2: The detector biases were disabled at the current time...3: An engineering look-up-table was used for the main and/or derived channel data at the current time. NOTE THAT THE CHANNEL MAPPING IS INVALID HERE....4: The front detectors were selected at the current time (high unit electron only)....5:The data was set to fill as instructed by the calibration file...6:There was no housekeeping and/or digital status data found. The bias status, pulser status, etc... is not known....7:There are no main channels defined at the current time..8:There are no derived channels defined at the current time..9:A validity check failed in the flux conversion. This usually indicates that an engineering look-up-table was selected at the current time..10:A calibration file could not be found for the current look-up-table ID. NOTE THAT THE CHANNEL MAPPING IS INVALID HERE...11:Data was not found at the current time for at least one of LOW, MED, HIGH (defined for combined L2 product only)...12:These channels are not defined for this pixel (HIGH proton only)...13: The coincidence was disabled at the current time (high unit electron only)....*Note that whichever flag is set last in the code is the final value. Thus, if something is flag 1 and flag 3, whichever was determined last is the value." ;
		VAR_NOTES = "none" ;
		VAR_NOTES = "Unidirectional Differential Proton Flux (FPDU_pix1). Dimension 1 is for the 31 magEIS energy channels. The energy channel centroids are specified in FPDU_pix1_Energy. The channel widths are specified in FPDU_pix1_Energy_Widths.If less than 31 channels are used the remaining channel dimensions are set to fill values. Dimension 2 is for the 64 sector angles. Here, the dimension size of 64 is the maximum number of possible sectors. If less than 64 are being used, the data are set to fill values of -1.0E31. The sector angle values for valid (non-fill) sectors are given in FPDU_pix1_Sector_Angle." ;
		VAR_NOTES = "MagEIS energy channel centroids. These channels are the 31 \"main rate\" channels.If less than 31 channels are used the remaining channel dimensions are set to fill values." ;
		VAR_NOTES = "Sector angles, in degrees. The dimension size of 64 is the maximum number of possible sectors. If less than 64 are being used, the data are set to fill values of -1.0e+31. The angle is the start angle of the sector." ;
		VAR_NOTES = "-1: This indicates that the flag was not set properly.  ..0: No known quality issues with data....1: The test pulser was on at the current time....2: The detector biases were disabled at the current time...3: An engineering look-up-table was used for the main and/or derived channel data at the current time. NOTE THAT THE CHANNEL MAPPING IS INVALID HERE....4: The front detectors were selected at the current time (high unit electron only)....5:The data was set to fill as instructed by the calibration file...6:There was no housekeeping and/or digital status data found. The bias status, pulser status, etc... is not known....7:There are no main channels defined at the current time..8:There are no derived channels defined at the current time..9:A validity check failed in the flux conversion. This usually indicates that an engineering look-up-table was selected at the current time..10:A calibration file could not be found for the current look-up-table ID. NOTE THAT THE CHANNEL MAPPING IS INVALID HERE...11:Data was not found at the current time for at least one of LOW, MED, HIGH (defined for combined L2 product only)...12:These channels are not defined for this pixel (HIGH proton only)...13: The coincidence was disabled at the current time (high unit electron only)....*Note that whichever flag is set last in the code is the final value. Thus, if something is flag 1 and flag 3, whichever was determined last is the value." ;
		VAR_NOTES = "none" ;
		VAR_NOTES = "MagEIS energy channel widths. These are the 31 \"main rate\" channels.If less than 31 channels are used the remaining channel dimensions are set to fill values." ;
		VAR_NOTES = "Spin-Averaged Differential Proton Flux (FPSA_pix2). These data are obtained by averaging the sectored fluxes over the data accumulation time (a spin-set, nominally equal to 1 spin). Thus, it is not an omni-directional flux, but rather a spin-set-averaged flux. Dimension 1 is for the 31 magEIS energy channels. If less than 31 channels are used the remaining channel dimensions are set to fill values. The energy channel centroids are specified in FPSA_pix2_Energy. The channel widths are specified in FPSA_pix2_Energy_Widths." ;
		VAR_NOTES = "-1: This indicates that the flag was not set properly.  ..0: No known quality issues with data....1: The test pulser was on at the current time....2: The detector biases were disabled at the current time...3: An engineering look-up-table was used for the main and/or derived channel data at the current time. NOTE THAT THE CHANNEL MAPPING IS INVALID HERE....4: The front detectors were selected at the current time (high unit electron only)....5:The data was set to fill as instructed by the calibration file...6:There was no housekeeping and/or digital status data found. The bias status, pulser status, etc... is not known....7:There are no main channels defined at the current time..8:There are no derived channels defined at the current time..9:A validity check failed in the flux conversion. This usually indicates that an engineering look-up-table was selected at the current time..10:A calibration file could not be found for the current look-up-table ID. NOTE THAT THE CHANNEL MAPPING IS INVALID HERE...11:Data was not found at the current time for at least one of LOW, MED, HIGH (defined for combined L2 product only)...12:These channels are not defined for this pixel (HIGH proton only)...13: The coincidence was disabled at the current time (high unit electron only)....*Note that whichever flag is set last in the code is the final value. Thus, if something is flag 1 and flag 3, whichever was determined last is the value." ;
		VAR_NOTES = "none" ;
		VAR_NOTES = "Unidirectional Differential Proton Flux (FPDU_pix2). Dimension 1 is for the 31 magEIS energy channels. The energy channel centroids are specified in FPDU_pix2_Energy. The channel widths are specified in FPDU_pix2_Energy_Widths.If less than 31 channels are used the remaining channel dimensions are set to fill values. Dimension 2 is for the 64 sector angles. Here, the dimension size of 64 is the maximum number of possible sectors. If less than 64 are being used, the data are set to fill values of -1.0E31. The sector angle values for valid (non-fill) sectors are given in FPDU_pix2_Sector_Angle." ;
		VAR_NOTES = "MagEIS energy channel centroids. These channels are the 31 \"main rate\" channels.If less than 31 channels are used the remaining channel dimensions are set to fill values." ;
		VAR_NOTES = "Sector angles, in degrees. The dimension size of 64 is the maximum number of possible sectors. If less than 64 are being used, the data are set to fill values of -1.0e+31. The angle is the start angle of the sector." ;
		VAR_NOTES = "-1: This indicates that the flag was not set properly.  ..0: No known quality issues with data....1: The test pulser was on at the current time....2: The detector biases were disabled at the current time...3: An engineering look-up-table was used for the main and/or derived channel data at the current time. NOTE THAT THE CHANNEL MAPPING IS INVALID HERE....4: The front detectors were selected at the current time (high unit electron only)....5:The data was set to fill as instructed by the calibration file...6:There was no housekeeping and/or digital status data found. The bias status, pulser status, etc... is not known....7:There are no main channels defined at the current time..8:There are no derived channels defined at the current time..9:A validity check failed in the flux conversion. This usually indicates that an engineering look-up-table was selected at the current time..10:A calibration file could not be found for the current look-up-table ID. NOTE THAT THE CHANNEL MAPPING IS INVALID HERE...11:Data was not found at the current time for at least one of LOW, MED, HIGH (defined for combined L2 product only)...12:These channels are not defined for this pixel (HIGH proton only)...13: The coincidence was disabled at the current time (high unit electron only)....*Note that whichever flag is set last in the code is the final value. Thus, if something is flag 1 and flag 3, whichever was determined last is the value." ;
		VAR_NOTES = "none" ;
		VAR_NOTES = "MagEIS energy channel widths. These are the 31 \"main rate\" channels.If less than 31 channels are used the remaining channel dimensions are set to fill values." ;
		VAR_NOTES = "Estimate of the percent error in the proton flux (pix1).  The percent error is defined as a relative error: d(Flux)/Flux, where Flux is the proton flux." ;
		VAR_NOTES = "Estimate of the percent error in the proton flux (pix2).  The percent error is defined as a relative error: d(Flux)/Flux, where Flux is the proton flux." ;
		VAR_NOTES = "Estimate of the percent error in the proton flux from pix1.  The percent error is defined as a relative error: d(Flux)/Flux, where Flux is the proton flux." ;
		VAR_NOTES = "Estimate of the percent error in the proton flux from pix2.  The percent error is defined as a relative error: d(Flux)/Flux, where Flux is the proton flux." ;
		LABL_PTR_2 = "FPDU_LABL_1" ;
		LABL_PTR_2 = "FPDU_LABL_1" ;
		LABL_PTR_2 = "FPDU_LABL_1" ;
		LABL_PTR_2 = "FPDU_pix1_LABL_1" ;
		LABL_PTR_2 = "FPDU_pix2_LABL_1" ;
		LABL_PTR_2 = "FPDU_pix1_LABL_1" ;
		LABL_PTR_2 = "FPDU_pix2_LABL_1" ;
		DELTA_PLUS_VAR = "FEDU_Energy_DELTA_plus" ;
		DELTA_PLUS_VAR = "FPDU_Energy_DELTA_plus" ;
		DELTA_PLUS_VAR = "FPDU_pix1_Energy_DELTA_plus" ;
		DELTA_PLUS_VAR = "FPDU_pix2_Energy_DELTA_plus" ;
		DELTA_MINUS_VAR = "FEDU_Energy_DELTA_minus" ;
		DELTA_MINUS_VAR = "FPDU_Energy_DELTA_minus" ;
		DELTA_MINUS_VAR = "FPDU_pix1_Energy_DELTA_minus" ;
		DELTA_MINUS_VAR = "FPDU_pix2_Energy_DELTA_minus" ;
		TIME_BASE = "0 AD" ;
}