Attributes { HDF_GLOBAL { String HDFEOSVersion "HDFEOS_V2.13"; String Site%20Name "GOMACCS"; String HDF_ANNOT "RUNTIME ENVIRONMENT INFORMATION\\012DATE OF RUN: Tue Oct 10 16:06:05 2006\\012HOST INFO: l0spg10: (IRIX64 6.5 10070055 IP35)\\012RUN BY: s4pmops\\012UNIQUE FILE NAME: MISR_AM1_CGGRP_SEP_2006_SITE_GOMACCS_F02_0019.hdf\\012TOOLKIT_VERSION: DAAC TK5.2.13\\012ENVIRONMENT VARIABLES\\012 PGSHOME = /vol1/TS1/ssit/TOOLKIT_5.2.13/TOOLKIT\\012 PGS_PC_INFO_FILE = /vol1/OPS/S4PM-MISR/strings/terra/stations/reprocessing/run_algorithm/RUNNING.RUN_M12AP_MR.2006244000000/DO.RUN_M12AP_MR.2006244000000\\012 PGSMSG = /vol1/OPS/S4PM-MISR/strings/terra/stations/reprocessing/run_algorithm/RUNNING.RUN_M12AP_MR.2006244000000/../M12AP_MR/40002/MSGS\\01206.hdf\\012 Input Path = /MISR/OPS/S4PM-MISR-L2/data/ancillary/CSSC/MISR_AM1_CSSC_F02_06.hdf\\012LID = 1307; Local Granule ID = MISR_AM1_GRP_TERRAIN_GM_P160_O032051_DF_F03_0024.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MI1B2T.A2005361.0620.003.2005362112915.DF.24.hdf\\012LID = 1308; Local Granule ID = MISR_AM1_GRP_TERRAIN_GM_P160_O032051_CF_F03_0024.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MI1B2T.A2005361.0620.003.2005362104938.CF.24.hdf\\012LID = 1309; Local Granule ID = MISR_AM1_GRP_TERRAIN_GM_P160_O032051_BF_F03_0024.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MI1B2T.A2005361.0620.003.2005362110246.BF.24.hdf\\012LID = 1310; Local Granule ID = MISR_AM1_GRP_TERRAIN_GM_P160_O032051_AF_F03_0024.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MI1B2T.A2005361.0620.003.2005362105008.AF.24.hdf\\012LID = 1311; Local Granule ID = MISR_AM1_GRP_TERRAIN_GM_P160_O032051_AN_F03_0024.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MI1B2T.A2005361.0620.003.2005362104312.AN.24.hdf\\012LID = 1312; Local Granule ID = MISR_AM1_GRP_TERRAIN_GM_P160_O032051_DA_F03_0024.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MI1B2T.A2005361.0620.003.2005362110246.DA.24.hdf\\012LID = 1313; Local Granule ID = MISR_AM1_GRP_TERRAIN_GM_P160_O032051_CA_F03_0024.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MI1B2T.A2005361.0620.003.2005362104230.CA.24.hdf\\012LID = 1314; Local Granule ID = MISR_AM1_GRP_TERRAIN_GM_P160_O032051_BA_F03_0024.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MI1B2T.A2005361.0620.003.2005362112919.BA.24.hdf\\012LID = 1315; Local Granule ID = MISR_AM1_GRP_TERRAIN_GM_P160_O032051_AA_F03_0024.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MI1B2T.A2005361.0620.003.2005362104230.AA.24.hdf\\012LID = 1316; Local Granule ID = MISR_AM1_GRP_ELLIPSOID_GM_P160_O032051_DF_F03_0024.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MI1B2E.A2005361.0620.003.2005362112933.DF.24.hdf\\012LID = 1317; Local Granule ID = MISR_AM1_GRP_ELLIPSOID_GM_P160_O032051_CF_F03_0024.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MI1B2E.A2005361.0620.003.2005362105208.CF.24.hdf\\012LID = 1318; Local Granule ID = MISR_AM1_GRP_ELLIPSOID_GM_P160_O032051_BF_F03_0024.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MI1B2E.A2005361.0620.003.2005362110302.BF.24.hdf\\012LID = 1319; Local Granule ID = MISR_AM1_GRP_ELLIPSOID_GM_P160_O032051_AF_F03_0024.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MI1B2E.A2005361.0620.003.2005362105250.AF.24.hdf\\012LID = 1320; Local Granule ID = MISR_AM1_GRP_ELLIPSOID_GM_P160_O032051_AN_F03_0024.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MI1B2E.A2005361.0620.003.2005362104717.AN.24.hdf\\012LID = 1321; Local Granule ID = MISR_AM1_GRP_ELLIPSOID_GM_P160_O032051_DA_F03_0024.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MI1B2E.A2005361.0620.003.2005362110303.DA.24.hdf\\012LID = 1322; Local Granule ID = MISR_AM1_GRP_ELLIPSOID_GM_P160_O032051_CA_F03_0024.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MI1B2E.A2005361.0620.003.2005362104527.CA.24.hdf\\012LID = 1323; Local Granule ID = MISR_AM1_GRP_ELLIPSOID_GM_P160_O032051_BA_F03_0024.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MI1B2E.A2005361.0620.003.2005362112934.BA.24.hdf\\012LID = 1324; Local Granule ID = MISR_AM1_GRP_ELLIPSOID_GM_P160_O032051_AA_F03_0024.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MI1B2E.A2005361.0620.003.2005362104547.AA.24.hdf\\012LID = 1325; Local Granule ID = MISR_AM1_GRP_RCCM_GM_P160_O032051_DF_F04_0025.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MIRCCM.A2005361.0620.004.2008074223441.DF.25.hdf\\012LID = 1326; Local Granule ID = MISR_AM1_GRP_RCCM_GM_P160_O032051_CF_F04_0025.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MIRCCM.A2005361.0620.004.2008074223954.CF.25.hdf\\012LID = 1327; Local Granule ID = MISR_AM1_GRP_RCCM_GM_P160_O032051_BF_F04_0025.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MIRCCM.A2005361.0620.004.2008074223410.BF.25.hdf\\012LID = 1328; Local Granule ID = MISR_AM1_GRP_RCCM_GM_P160_O032051_AF_F04_0025.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MIRCCM.A2005361.0620.004.2008074221836.AF.25.hdf\\012LID = 1329; Local Granule ID = MISR_AM1_GRP_RCCM_GM_P160_O032051_AN_F04_0025.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MIRCCM.A2005361.0620.004.2008074223450.AN.25.hdf\\012LID = 1330; Local Granule ID = MISR_AM1_GRP_RCCM_GM_P160_O032051_DA_F04_0025.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MIRCCM.A2005361.0620.004.2008074223440.DA.25.hdf\\012LID = 1331; Local Granule ID = MISR_AM1_GRP_RCCM_GM_P160_O032051_CA_F04_0025.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MIRCCM.A2005361.0620.004.2008074223451.CA.25.hdf\\012LID = 1332; Local Granule ID = MISR_AM1_GRP_RCCM_GM_P160_O032051_BA_F04_0025.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MIRCCM.A2005361.0620.004.2008074221905.BA.25.hdf\\012LID = 1333; Local Granule ID = MISR_AM1_GRP_RCCM_GM_P160_O032051_AA_F04_0025.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MIRCCM.A2005361.0620.004.2008074221804.AA.25.hdf\\012LID = 1334; Local Granule ID = MISR_AM1_GP_GMP_P160_O032051_F03_0013.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MIB2GEOP.A2005361.0620.002.2008071062115.13.hdf\\012LID = 1340; Local Granule ID = MISR_AM1_TASC_DEC_2005_F02_03.hdf\\012 Input Path = /MISR/OPS/S4PM-MISR-L2/data/ancillary/TASC/MISR_AM1_TASC_DEC_2005_F02_03.hdf\\012LID = 1500; Local Granule ID = MISR_AM1_ARP_PRFLTCHAR_F02_0002.hdf\\012 Input Path = /MISR/OPS/S4PM-MISR-L2/data/ancillary/ARP_static/MISR_AM1_ARP_PRFLTCHAR_F02_0002.hdf\\012LID = 1501; Local Granule ID = MISR_AM1_ARP_PRFLTCAL_F02_0005.hdf\\012 Input Path = /MISR/OPS/S4PM-MISR-L2/data/ancillary/ARP_static/MISR_AM1_ARP_PRFLTCAL_F02_0005.hdf\\012LID = 1502; Local Granule ID = MISR_AM1_ARP_INFLTCAL_T036_F02_0010.hdf\\012 Input Path = /MISR/OPS/S4PM-MISR-L2/data/ancillary/ARP_dynamic/MISR_AM1_ARP_INFLTCAL_T036_F02_0010.hdf\\012LID = 1503; Local Granule ID = MISR_AM1_ARP_CONFIG_F03_0003.hdf\\012 Input Path = /MISR/OPS/S4PM-MISR-L2/data/ancillary/ARP_static/MISR_AM1_ARP_CONFIG_F03_0003.hdf\\012LID = 951; Local Granule ID = MISR_AM1_TC_STEREO_P160_O032051_F08_0017.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MIL2TCST.A2005361.0620.002.2008075002036.17.hdf\\012)\\01240.8 ! cam_line_repeat_time\\012 ! MISR camera line repeat time (msec)\\012.0001 ! BRF scale factor\\012!------------------------------------------------\\012! Threshold parameters\\012! Reference: None\\012! \\012!------------------------------------------------\\0120.0 ! min_rlra_height\\012 ! minimum acceptable value for RLRA height (m)\\01220000.0 ! max_rlra_height\\012 ! maximum acceptable value for RLRA height (m)\\0120.0 ! min_texture_index\\012 ! minimum acceptable value for texture index\\01210.0 ! max_texture_index\\012 ! maximum acceptable value for texture index\\012175.0 ! min_temperature\\012 ! minimum acceptable value for temperature (K)\\012340.0 ! max_temperature\\012 ! maximum acceptable value for temperature (K)\\0126.0 ! max_brf_value\\012 ! maximum acceptable value for BRF\\0120.0 ! min_albedo_value\\012 ! minimum acceptable value for albedo\\0126.0 ! max_albedo_value\\012 ! maximum acceptable value for albedo\\01280.0 ! max_view_angle_along\\012 ! maximum view angle in along-track direction (degrees)\\01225.0 ! max_view_angle_cross\\012 ! maximum view angle in cross-track direction (degrees)\\012!------------------------------------------------\\012! TOA Albedo Retrieval Configuration File parameters\\012! Reference: Level 2 Top-of-Atmosphere Albedo Algorithm\\012! Theoretical Basis Document, JPL D-13401, Rev B\\012!------------------------------------------------\\0120.04 ! mu0_thresh_albedo\\012 ! minimum cosine of solar zenith angle for calculation of albedos\\0128 ! max_brf_cam_dist_t\\012 ! maximum camera distance for filling in missing side-leaving BRFs\\0121 ! max_brf_cam_dist_s\\012 ! maximum camera distance for filling in missing side-leaving BRFs\\0120.0 ! min_liquid_cloud_temp\\012 ! minimum temperature for setting cloud phase = liquid (degrees C)\\012-43.0 ! max_ice_cloud_temp\\012 ! maximum temperature for setting cloud phase = ice (degrees C)\\0126 ! min_angle_det_clear\\012 ! minimum number of angles needed for applying Deterministic (clear) model\\0120.240 0.094 0.043 0.015 ! rayleigh_std\\012 ! standard Rayleigh optical depth, for each spectral band\\0128.0 ! scale_ht\\012 ! atmospheric scale height, H (km)\\0124 ! niter_det_clear\\012 ! number of iterations for clear sky deterministic model fit\\0122.0 ! chi_sq_thresh_azm\\012 ! threshold for determining goodness of clear-sky AZM fit\\01210 ! nbin_mu\\012 ! number of cosine of zenith angle sub-bins\\01290 ! nbin_phi\\012 ! number of azimuth angle sub-bins\\0120.9 ! mu0_thresh_saw\\012 ! minimum value of mu0 above which pure Solid Angle Weighting is used\\01230.0 ! toa_altitude\\012 ! TOA altitude for referencing expansive albedos (km)\\0125 ! nblock_expansive\\012 ! number of 140.8-km blocks contributing to expansive albedo calculation\\0120 ! force_albedo_method\\012 ! force albedo code through one method: 0 - do not force; 1 - cloudy determ;\\012 ! 2 - cloudy stoch; 3 - clear determ; 4 - solid angle weighting\\0121.640 ! alb_broadband_zeropoint\\012 ! a_0 regression coefficient to use for broadband albedo calculation\\0120.170 0.210 -0.18 0.530 ! alb_broadband_coeff\\012 ! coefficients (blue-band, green-band, red-band, nir-band in order)\\012 ! to use in calculating the broadband albedo\\0121368.0 ! alb_broadband_I0b\\012 ! \"I0_b\" coefficient to use in albedo broadband calculation\\0121 ! cssc_search_dist\\012 ! distance from center of lat/long cell to search for nearest land class, \\012 ! expressed as a whole number of CSSC cells\\0128 ! min_localb_cameras\\012 ! minimum number of cameras that satisfy criteria for computing local\\012 ! albedo - to crop local albedo at swath edges\\0121 ! reset_localb_to_fill\\012 ! whether or not to reset local albedo values at filled RLRAs to BADVALUE;\\012 ! 0 = do not reset; 1 = reset\\01210000.0 ! rlp_horiz_segment_len\\012 ! horizontal distance in meters over which look vectors expressed in SOM\\012\\011 ! coords can be linearly interpolated to give acceptable results\\0122 ! rlra_filter\\012 ! type of RLRA filtering to do in RLP: 0 = do not replace RLRA BAD_VALUEs;\\012 ! 1 = replace all BAD_VALUEs with 0.0; 2 = replace all BAD_VALUES with an\\012 ! average of nearby RLRA values\\0120 ! rlra_smooth\\012 ! whether to do RLRA smoothing in RLP:\\012 ! 0 = do not smooth RLRAs; 1 = smooth RLRAs after replacement\\012long\\012 ! target patch size used in height retrievals, along-track (pixels)\\0126 ! target_patch_cross \\012 ! target patch size used in height retrievals, cross-track (pixels)\\0120.75 ! m2_thresh\\012 ! M2 threshold\\0121.00 ! m3_thresh\\012 ! M3 threshold\\0126 ! rs_filter_window_along\\012 ! RS filter window size, along-track direction (pixels)\\0126 ! rs_filter_window_cross\\012 ! RS filter window size, cross-track direction (pixels)\\0120 ! rs_string_size (currently not used)\\012 ! RS along-track string size (pixels)\\01250.0 ! min_median_filter_pcnt\\012 ! minimum population of filter window to perform median filtering (percent)\\0124 ! m2m3_matcher_score\\012 ! M2+M3 matcher score\\0123 ! m2_matcher_score\\012 ! M2 matcher score\\0122 ! m3_matcher_score\\012 ! M3 matcher score\\0121 ! rs_matcher_score\\012 ! RS matcher score\\0120.0 ! min_stereo_cloud_height\\012 ! minimum allowable stereoscopic cloud height. (km)\\01220.0 ! max_stereo_cloud_height\\012 ! maximum allowable stereoscopic cloud height. (km)\\0121000.0 ! max_skew\\012 ! ray skewness blunder threshold (m)\\01210000.0 ! max_skew_zerowind\\012 ! ray skewness blunder threshold (m) for zero-wind heights.\\0120 ! skew_blunder_score\\012 ! ray skewness blunder score\\0121 ! skew_lc_score\\012 ! ray skewness test low confidence score\\012275.0 ! skew_hc_thresh\\012 ! ray skewness test high confidence threshold (m)\\0122 ! skew_hc_score\\012 ! ray skewness test high confidence score\\012562.0 ! height_unc\\012 ! stereoscopic height uncertainty increment\\0128 ! max_hc_score\\012 ! maximum score for declaring a stereoscopic height High Confidence\\0126 ! min_hc_score\\012 ! minimum score for declaring a stereoscopic height High Confidence\\0125 ! max_lc_score\\012 ! maximum score for declaring a stereoscopic height Low Confidence\\0121 ! min_lc_score\\012 ! minimum score for declaring a stereoscopic height Low Confidence\\0125.0 ! max_snow_water_eq\\012 ! maximum equivalent water amount which is not considered snow-covered (mm)\\0125.0 ! max_sea_ice_pcnt\\012 ! maximum sea ice cover which is not considered snow-covered (percent)\\0120.0 ! default_rlra_ht\\012 ! default rlra height (km above terrain)\\0123.0 ! default_cloud_ht\\012 ! default cloud height (km above terrain)\\0127 ! neighborhd_size\\012 ! # of 1.1 km samples, along- and cross-track, in terrain \"neighborhood\"\\0120 3 3 2 2 ! stereo_ht_table\\0121 1 1 1 2 ! stereoscopic height decision matrix (Table 5 of ATB)\\0121 1 1 2 2 ! 0 = \"No Retrieval\"\\0121 1 1 2 2 ! 1 = \"Keep\"\\0121 1 1 2 2 ! 2 = \"Surface\"\\012 ! 3 = \"Default Cloud\"\\0120 2 2 4 4 ! sdcm_table\\0121 1 1 1 4 ! 0 = \"No Retrieval\"\\0122 2 2 4 4 ! 1 = \"CloudHC\"\\0123 3 3 4 4 ! 2 = \"CloudLC\"\\0124 3 3 4 4 ! 3 = \"Near Surface\"\\012 ! 4 = \"Clear\"\\0120.0 ! texture_max_rdqi\\012 ! RDQI thresh for determ what is valid data in calc avg BRFs and text indices\\01292.0 ! max_scat_angle\\012 ! scattering angle threshold for establishing forward scattering\\0122.0 ! max_low_cloud\\012 ! low cloud upper limit for altitude binning (km)\\0126.0 ! max_mid_cloud\\012 ! middle cloud upper limit for altitude binning (km)\\012275.0 ! cloud_thickness\\012 ! assumed cloud thickness used in cloud shadow algorithm (m)\\012550.0 ! ray_cast_step_size\\012 ! horizontal ray-casting step size in cloud and topographic shadow alg (m)\\01235.2 ! max_ray_cast\\012 ! maximum horizontal distance for casting cloud and topographic shadow\\0120.5 ! prev_match_m2_thresh\\012 ! previous match method threshold for M2\\0120.5 ! prev_match_m3_thresh\\012 ! previous match method threshold for M3\\0122 ! pyramid_levels\\012 ! number of levels in stereo image pyramid\\012.FALSE. ! rs_match_flag\\012 ! whether to use the RS stereo matching method (flag)\\0125 ! height_ref_cam\\012 ! stereo height reference camera id\\0124 ! height_comp_cam_fwd\\012 ! stereo height forward comparison camera id\\0126 ! height_comp_cam_aft\\012 ! stereo height aft comparison camera id\\0127 ! previous_window_along\\012 ! along-track size of previous-match-method search window\\0125 ! previous_window_cross\\012 ! cross-track size of previous-match-method search window\\0125 ! pyramid_window_along\\012 ! along-track size of pyramid-match-method search window\\0125 ! pyramid_window_cross\\012 ! cross-track size of pyramid-match-method search window\\0122.0 ! blunder_thresh\\012 ! number of standard deviations used to compute height blunder limits\\012275.0 ! near_ellipsoid_tolerance\\012 ! distance from ellipsoid to be considered a misregistration correction point\\01210\\011 ! min_misreg_points\\012\\011 ! min number of misreg points needed to perform misregistration correction\\0122 ! max_misreg_cross_disp\\012\\011 ! maximum cross-track disparity to allow in misregistration calculation\\0121.5 ! max_misreg_height_diff\\012\\011 ! max diff btw surface ht and disparity-calc ht for point to be included in misreg calc (times resolution)\\0122\\011 ! max_peak_variance_cross\\012\\011 ! maximum cross-track variance from histogram peak to avoid cut\\0122\\011 ! max_peak_variance_along\\012\\011 ! maximum along-track variance from histogram peak to avoid cut\\0121.00\\011 ! max_misreg_cloud_frac\\012\\011 ! max frac of domain classified as cloudy (CLOUD_HC or CLOUD_LC) for misreg calc to be performed\\0125\\011 ! misreg_srch_neighborhd\\012\\011 ! area around point to search for land (NxN)\\0123.0 ! fwdaft_windns_diff_good\\012 ! Wind FwdAft Difference threshold to a wind to be considered good quality\\0125.0 ! fwdaft_windns_diff_bad\\012 ! Wind FwdAft Difference threshold to a wind to be considered bad quality\\0120.30 ! ratio_ntriplets_alltriplets\\012\\011 ! min ratio of triplets to all triplets for wind disparity histograms to be used for wind QA calculations.\\01213\\011 ! wdisp_hist_width_good\\012\\011 ! max histogram width to be called good quality.\\01225\\011 ! wdisp_hist_width_bad\\012\\011 ! histogram width at or above which is called bad quality.\\0123\\011 ! min_ngoodhist_vgwind\\012\\011 ! min number of good quality histograms for wind to be very good.\\0120\\011 ! max_nbadhist_vgwind\\012\\011 ! max number of bad quality histograms for wind to be very good quality.\\0122\\011 ! min_ngoodhist_goodwind\\012\\011 ! min number of good quality histograms for wind to be good quality.\\0121\\011 ! max_nbadhist_goodwind\\012\\011 ! max number of bad quality histograms for wind to be good quality.\\0121\\011 ! min_ngoodhist_badwind\\012\\011 ! min number of good quality histograms for wind to be bad quality.\\0122\\011 ! min_nbadhist_badwind \\012\\011 ! min number of bad quality histograms for wind to be bad quality.\\0120.1 ! max_frac_bad_winds\\012 ! maximum allowable fraction of winds to fail the FwdAft quality test\\0129999.0 ! max_mean_fwdaft_diff1 \\012 ! maximum allowable mean value of NS Wind FwdAft difference for good winds\\0128.0 ! max_mean_fwdaft_diff\\012 ! maximum allowable mean value of NS Wind FwdAft difference for all winds\\0120.75 ! max_frac_bad_gdqi\\012 ! maximum allowable fraction of bad GDQI's per camera\\012\\012\\012", "INPUT FILES INFORMATION\\012LID = 1101; Local Granule ID = MISR_AM1_PGE12AP_PCS_CONFIG_F01_0001.ascii\\012 Input Path = /vol1/OPS/S4PM-MISR/data/ancillary/CONFIG/MISR_AM1_PGE12AP_PCS_CONFIG_F01_0001.ascii\\012LID = 1600; Local Granule ID = MISR_AM1_CGGRP_SEP_2006_SITE_GOMACCS_F03_0018.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR/data/MI3MRDR/MI3MRDR.A2006244.0000.001.2006283192609.18.hdf\\012ssing/run_algorithm/RUNNING.RUN_M12AP_MR.2006244000000/DO.RUN_M12AP_MR.2006244000000\\012 PGSMSG = /vol1/OPS/S4PM-MISR/strings/terra/stations/reprocessing/run_algorithm/RUNNING.RUN_M12AP_MR.2006244000000/../M12AP_MR/40002/MSGS\\01206.hdf\\012 Input Path = /MISR/OPS/S4PM-MISR-L2/data/ancillary/CSSC/MISR_AM1_CSSC_F02_06.hdf\\012LID = 1307; Local Granule ID = MISR_AM1_GRP_TERRAIN_GM_P160_O032051_DF_F03_0024.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MI1B2T.A2005361.0620.003.2005362112915.DF.24.hdf\\012LID = 1308; Local Granule ID = MISR_AM1_GRP_TERRAIN_GM_P160_O032051_CF_F03_0024.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MI1B2T.A2005361.0620.003.2005362104938.CF.24.hdf\\012LID = 1309; Local Granule ID = MISR_AM1_GRP_TERRAIN_GM_P160_O032051_BF_F03_0024.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MI1B2T.A2005361.0620.003.2005362110246.BF.24.hdf\\012LID = 1310; Local Granule ID = MISR_AM1_GRP_TERRAIN_GM_P160_O032051_AF_F03_0024.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MI1B2T.A2005361.0620.003.2005362105008.AF.24.hdf\\012LID = 1311; Local Granule ID = MISR_AM1_GRP_TERRAIN_GM_P160_O032051_AN_F03_0024.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MI1B2T.A2005361.0620.003.2005362104312.AN.24.hdf\\012LID = 1312; Local Granule ID = MISR_AM1_GRP_TERRAIN_GM_P160_O032051_DA_F03_0024.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MI1B2T.A2005361.0620.003.2005362110246.DA.24.hdf\\012LID = 1313; Local Granule ID = MISR_AM1_GRP_TERRAIN_GM_P160_O032051_CA_F03_0024.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MI1B2T.A2005361.0620.003.2005362104230.CA.24.hdf\\012LID = 1314; Local Granule ID = MISR_AM1_GRP_TERRAIN_GM_P160_O032051_BA_F03_0024.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MI1B2T.A2005361.0620.003.2005362112919.BA.24.hdf\\012LID = 1315; Local Granule ID = MISR_AM1_GRP_TERRAIN_GM_P160_O032051_AA_F03_0024.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MI1B2T.A2005361.0620.003.2005362104230.AA.24.hdf\\012LID = 1316; Local Granule ID = MISR_AM1_GRP_ELLIPSOID_GM_P160_O032051_DF_F03_0024.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MI1B2E.A2005361.0620.003.2005362112933.DF.24.hdf\\012LID = 1317; Local Granule ID = MISR_AM1_GRP_ELLIPSOID_GM_P160_O032051_CF_F03_0024.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MI1B2E.A2005361.0620.003.2005362105208.CF.24.hdf\\012LID = 1318; Local Granule ID = MISR_AM1_GRP_ELLIPSOID_GM_P160_O032051_BF_F03_0024.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MI1B2E.A2005361.0620.003.2005362110302.BF.24.hdf\\012LID = 1319; Local Granule ID = MISR_AM1_GRP_ELLIPSOID_GM_P160_O032051_AF_F03_0024.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MI1B2E.A2005361.0620.003.2005362105250.AF.24.hdf\\012LID = 1320; Local Granule ID = MISR_AM1_GRP_ELLIPSOID_GM_P160_O032051_AN_F03_0024.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MI1B2E.A2005361.0620.003.2005362104717.AN.24.hdf\\012LID = 1321; Local Granule ID = MISR_AM1_GRP_ELLIPSOID_GM_P160_O032051_DA_F03_0024.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MI1B2E.A2005361.0620.003.2005362110303.DA.24.hdf\\012LID = 1322; Local Granule ID = MISR_AM1_GRP_ELLIPSOID_GM_P160_O032051_CA_F03_0024.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MI1B2E.A2005361.0620.003.2005362104527.CA.24.hdf\\012LID = 1323; Local Granule ID = MISR_AM1_GRP_ELLIPSOID_GM_P160_O032051_BA_F03_0024.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MI1B2E.A2005361.0620.003.2005362112934.BA.24.hdf\\012LID = 1324; Local Granule ID = MISR_AM1_GRP_ELLIPSOID_GM_P160_O032051_AA_F03_0024.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MI1B2E.A2005361.0620.003.2005362104547.AA.24.hdf\\012LID = 1325; Local Granule ID = MISR_AM1_GRP_RCCM_GM_P160_O032051_DF_F04_0025.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MIRCCM.A2005361.0620.004.2008074223441.DF.25.hdf\\012LID = 1326; Local Granule ID = MISR_AM1_GRP_RCCM_GM_P160_O032051_CF_F04_0025.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MIRCCM.A2005361.0620.004.2008074223954.CF.25.hdf\\012LID = 1327; Local Granule ID = MISR_AM1_GRP_RCCM_GM_P160_O032051_BF_F04_0025.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MIRCCM.A2005361.0620.004.2008074223410.BF.25.hdf\\012LID = 1328; Local Granule ID = MISR_AM1_GRP_RCCM_GM_P160_O032051_AF_F04_0025.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MIRCCM.A2005361.0620.004.2008074221836.AF.25.hdf\\012LID = 1329; Local Granule ID = MISR_AM1_GRP_RCCM_GM_P160_O032051_AN_F04_0025.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MIRCCM.A2005361.0620.004.2008074223450.AN.25.hdf\\012LID = 1330; Local Granule ID = MISR_AM1_GRP_RCCM_GM_P160_O032051_DA_F04_0025.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MIRCCM.A2005361.0620.004.2008074223440.DA.25.hdf\\012LID = 1331; Local Granule ID = MISR_AM1_GRP_RCCM_GM_P160_O032051_CA_F04_0025.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MIRCCM.A2005361.0620.004.2008074223451.CA.25.hdf\\012LID = 1332; Local Granule ID = MISR_AM1_GRP_RCCM_GM_P160_O032051_BA_F04_0025.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MIRCCM.A2005361.0620.004.2008074221905.BA.25.hdf\\012LID = 1333; Local Granule ID = MISR_AM1_GRP_RCCM_GM_P160_O032051_AA_F04_0025.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MIRCCM.A2005361.0620.004.2008074221804.AA.25.hdf\\012LID = 1334; Local Granule ID = MISR_AM1_GP_GMP_P160_O032051_F03_0013.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MIB2GEOP.A2005361.0620.002.2008071062115.13.hdf\\012LID = 1340; Local Granule ID = MISR_AM1_TASC_DEC_2005_F02_03.hdf\\012 Input Path = /MISR/OPS/S4PM-MISR-L2/data/ancillary/TASC/MISR_AM1_TASC_DEC_2005_F02_03.hdf\\012LID = 1500; Local Granule ID = MISR_AM1_ARP_PRFLTCHAR_F02_0002.hdf\\012 Input Path = /MISR/OPS/S4PM-MISR-L2/data/ancillary/ARP_static/MISR_AM1_ARP_PRFLTCHAR_F02_0002.hdf\\012LID = 1501; Local Granule ID = MISR_AM1_ARP_PRFLTCAL_F02_0005.hdf\\012 Input Path = /MISR/OPS/S4PM-MISR-L2/data/ancillary/ARP_static/MISR_AM1_ARP_PRFLTCAL_F02_0005.hdf\\012LID = 1502; Local Granule ID = MISR_AM1_ARP_INFLTCAL_T036_F02_0010.hdf\\012 Input Path = /MISR/OPS/S4PM-MISR-L2/data/ancillary/ARP_dynamic/MISR_AM1_ARP_INFLTCAL_T036_F02_0010.hdf\\012LID = 1503; Local Granule ID = MISR_AM1_ARP_CONFIG_F03_0003.hdf\\012 Input Path = /MISR/OPS/S4PM-MISR-L2/data/ancillary/ARP_static/MISR_AM1_ARP_CONFIG_F03_0003.hdf\\012LID = 951; Local Granule ID = MISR_AM1_TC_STEREO_P160_O032051_F08_0017.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MIL2TCST.A2005361.0620.002.2008075002036.17.hdf\\012)\\01240.8 ! cam_line_repeat_time\\012 ! MISR camera line repeat time (msec)\\012.0001 ! BRF scale factor\\012!------------------------------------------------\\012! Threshold parameters\\012! Reference: None\\012! \\012!------------------------------------------------\\0120.0 ! min_rlra_height\\012 ! minimum acceptable value for RLRA height (m)\\01220000.0 ! max_rlra_height\\012 ! maximum acceptable value for RLRA height (m)\\0120.0 ! min_texture_index\\012 ! minimum acceptable value for texture index\\01210.0 ! max_texture_index\\012 ! maximum acceptable value for texture index\\012175.0 ! min_temperature\\012 ! minimum acceptable value for temperature (K)\\012340.0 ! max_temperature\\012 ! maximum acceptable value for temperature (K)\\0126.0 ! max_brf_value\\012 ! maximum acceptable value for BRF\\0120.0 ! min_albedo_value\\012 ! minimum acceptable value for albedo\\0126.0 ! max_albedo_value\\012 ! maximum acceptable value for albedo\\01280.0 ! max_view_angle_along\\012 ! maximum view angle in along-track direction (degrees)\\01225.0 ! max_view_angle_cross\\012 ! maximum view angle in cross-track direction (degrees)\\012!------------------------------------------------\\012! TOA Albedo Retrieval Configuration File parameters\\012! Reference: Level 2 Top-of-Atmosphere Albedo Algorithm\\012! Theoretical Basis Document, JPL D-13401, Rev B\\012!------------------------------------------------\\0120.04 ! mu0_thresh_albedo\\012 ! minimum cosine of solar zenith angle for calculation of albedos\\0128 ! max_brf_cam_dist_t\\012 ! maximum camera distance for filling in missing side-leaving BRFs\\0121 ! max_brf_cam_dist_s\\012 ! maximum camera distance for filling in missing side-leaving BRFs\\0120.0 ! min_liquid_cloud_temp\\012 ! minimum temperature for setting cloud phase = liquid (degrees C)\\012-43.0 ! max_ice_cloud_temp\\012 ! maximum temperature for setting cloud phase = ice (degrees C)\\0126 ! min_angle_det_clear\\012 ! minimum number of angles needed for applying Deterministic (clear) model\\0120.240 0.094 0.043 0.015 ! rayleigh_std\\012 ! standard Rayleigh optical depth, for each spectral band\\0128.0 ! scale_ht\\012 ! atmospheric scale height, H (km)\\0124 ! niter_det_clear\\012 ! number of iterations for clear sky deterministic model fit\\0122.0 ! chi_sq_thresh_azm\\012 ! threshold for determining goodness of clear-sky AZM fit\\01210 ! nbin_mu\\012 ! number of cosine of zenith angle sub-bins\\01290 ! nbin_phi\\012 ! number of azimuth angle sub-bins\\0120.9 ! mu0_thresh_saw\\012 ! minimum value of mu0 above which pure Solid Angle Weighting is used\\01230.0 ! toa_altitude\\012 ! TOA altitude for referencing expansive albedos (km)\\0125 ! nblock_expansive\\012 ! number of 140.8-km blocks contributing to expansive albedo calculation\\0120 ! force_albedo_method\\012 ! force albedo code through one method: 0 - do not force; 1 - cloudy determ;\\012 ! 2 - cloudy stoch; 3 - clear determ; 4 - solid angle weighting\\0121.640 ! alb_broadband_zeropoint\\012 ! a_0 regression coefficient to use for broadband albedo calculation\\0120.170 0.210 -0.18 0.530 ! alb_broadband_coeff\\012 ! coefficients (blue-band, green-band, red-band, nir-band in order)\\012 ! to use in calculating the broadband albedo\\0121368.0 ! alb_broadband_I0b\\012 ! \"I0_b\" coefficient to use in albedo broadband calculation\\0121 ! cssc_search_dist\\012 ! distance from center of lat/long cell to search for nearest land class, \\012 ! expressed as a whole number of CSSC cells\\0128 ! min_localb_cameras\\012 ! minimum number of cameras that satisfy criteria for computing local\\012 ! albedo - to crop local albedo at swath edges\\0121 ! reset_localb_to_fill\\012 ! whether or not to reset local albedo values at filled RLRAs to BADVALUE;\\012 ! 0 = do not reset; 1 = reset\\01210000.0 ! rlp_horiz_segment_len\\012 ! horizontal distance in meters over which look vectors expressed in SOM\\012\\011 ! coords can be linearly interpolated to give acceptable results\\0122 ! rlra_filter\\012 ! type of RLRA filtering to do in RLP: 0 = do not replace RLRA BAD_VALUEs;\\012 ! 1 = replace all BAD_VALUEs with 0.0; 2 = replace all BAD_VALUES with an\\012 ! average of nearby RLRA values\\0120 ! rlra_smooth\\012 ! whether to do RLRA smoothing in RLP:\\012 ! 0 = do not smooth RLRAs; 1 = smooth RLRAs after replacement\\012long\\012 ! target patch size used in height retrievals, along-track (pixels)\\0126 ! target_patch_cross \\012 ! target patch size used in height retrievals, cross-track (pixels)\\0120.75 ! m2_thresh\\012 ! M2 threshold\\0121.00 ! m3_thresh\\012 ! M3 threshold\\0126 ! rs_filter_window_along\\012 ! RS filter window size, along-track direction (pixels)\\0126 ! rs_filter_window_cross\\012 ! RS filter window size, cross-track direction (pixels)\\0120 ! rs_string_size (currently not used)\\012 ! RS along-track string size (pixels)\\01250.0 ! min_median_filter_pcnt\\012 ! minimum population of filter window to perform median filtering (percent)\\0124 ! m2m3_matcher_score\\012 ! M2+M3 matcher score\\0123 ! m2_matcher_score\\012 ! M2 matcher score\\0122 ! m3_matcher_score\\012 ! M3 matcher score\\0121 ! rs_matcher_score\\012 ! RS matcher score\\0120.0 ! min_stereo_cloud_height\\012 ! minimum allowable stereoscopic cloud height. (km)\\01220.0 ! max_stereo_cloud_height\\012 ! maximum allowable stereoscopic cloud height. (km)\\0121000.0 ! max_skew\\012 ! ray skewness blunder threshold (m)\\01210000.0 ! max_skew_zerowind\\012 ! ray skewness blunder threshold (m) for zero-wind heights.\\0120 ! skew_blunder_score\\012 ! ray skewness blunder score\\0121 ! skew_lc_score\\012 ! ray skewness test low confidence score\\012275.0 ! skew_hc_thresh\\012 ! ray skewness test high confidence threshold (m)\\0122 ! skew_hc_score\\012 ! ray skewness test high confidence score\\012562.0 ! height_unc\\012 ! stereoscopic height uncertainty increment\\0128 ! max_hc_score\\012 ! maximum score for declaring a stereoscopic height High Confidence\\0126 ! min_hc_score\\012 ! minimum score for declaring a stereoscopic height High Confidence\\0125 ! max_lc_score\\012 ! maximum score for declaring a stereoscopic height Low Confidence\\0121 ! min_lc_score\\012 ! minimum score for declaring a stereoscopic height Low Confidence\\0125.0 ! max_snow_water_eq\\012 ! maximum equivalent water amount which is not considered snow-covered (mm)\\0125.0 ! max_sea_ice_pcnt\\012 ! maximum sea ice cover which is not considered snow-covered (percent)\\0120.0 ! default_rlra_ht\\012 ! default rlra height (km above terrain)\\0123.0 ! default_cloud_ht\\012 ! default cloud height (km above terrain)\\0127 ! neighborhd_size\\012 ! # of 1.1 km samples, along- and cross-track, in terrain \"neighborhood\"\\0120 3 3 2 2 ! stereo_ht_table\\0121 1 1 1 2 ! stereoscopic height decision matrix (Table 5 of ATB)\\0121 1 1 2 2 ! 0 = \"No Retrieval\"\\0121 1 1 2 2 ! 1 = \"Keep\"\\0121 1 1 2 2 ! 2 = \"Surface\"\\012 ! 3 = \"Default Cloud\"\\0120 2 2 4 4 ! sdcm_table\\0121 1 1 1 4 ! 0 = \"No Retrieval\"\\0122 2 2 4 4 ! 1 = \"CloudHC\"\\0123 3 3 4 4 ! 2 = \"CloudLC\"\\0124 3 3 4 4 ! 3 = \"Near Surface\"\\012 ! 4 = \"Clear\"\\0120.0 ! texture_max_rdqi\\012 ! RDQI thresh for determ what is valid data in calc avg BRFs and text indices\\01292.0 ! max_scat_angle\\012 ! scattering angle threshold for establishing forward scattering\\0122.0 ! max_low_cloud\\012 ! low cloud upper limit for altitude binning (km)\\0126.0 ! max_mid_cloud\\012 ! middle cloud upper limit for altitude binning (km)\\012275.0 ! cloud_thickness\\012 ! assumed cloud thickness used in cloud shadow algorithm (m)\\012550.0 ! ray_cast_step_size\\012 ! horizontal ray-casting step size in cloud and topographic shadow alg (m)\\01235.2 ! max_ray_cast\\012 ! maximum horizontal distance for casting cloud and topographic shadow\\0120.5 ! prev_match_m2_thresh\\012 ! previous match method threshold for M2\\0120.5 ! prev_match_m3_thresh\\012 ! previous match method threshold for M3\\0122 ! pyramid_levels\\012 ! number of levels in stereo image pyramid\\012.FALSE. ! rs_match_flag\\012 ! whether to use the RS stereo matching method (flag)\\0125 ! height_ref_cam\\012 ! stereo height reference camera id\\0124 ! height_comp_cam_fwd\\012 ! stereo height forward comparison camera id\\0126 ! height_comp_cam_aft\\012 ! stereo height aft comparison camera id\\0127 ! previous_window_along\\012 ! along-track size of previous-match-method search window\\0125 ! previous_window_cross\\012 ! cross-track size of previous-match-method search window\\0125 ! pyramid_window_along\\012 ! along-track size of pyramid-match-method search window\\0125 ! pyramid_window_cross\\012 ! cross-track size of pyramid-match-method search window\\0122.0 ! blunder_thresh\\012 ! number of standard deviations used to compute height blunder limits\\012275.0 ! near_ellipsoid_tolerance\\012 ! distance from ellipsoid to be considered a misregistration correction point\\01210\\011 ! min_misreg_points\\012\\011 ! min number of misreg points needed to perform misregistration correction\\0122 ! max_misreg_cross_disp\\012\\011 ! maximum cross-track disparity to allow in misregistration calculation\\0121.5 ! max_misreg_height_diff\\012\\011 ! max diff btw surface ht and disparity-calc ht for point to be included in misreg calc (times resolution)\\0122\\011 ! max_peak_variance_cross\\012\\011 ! maximum cross-track variance from histogram peak to avoid cut\\0122\\011 ! max_peak_variance_along\\012\\011 ! maximum along-track variance from histogram peak to avoid cut\\0121.00\\011 ! max_misreg_cloud_frac\\012\\011 ! max frac of domain classified as cloudy (CLOUD_HC or CLOUD_LC) for misreg calc to be performed\\0125\\011 ! misreg_srch_neighborhd\\012\\011 ! area around point to search for land (NxN)\\0123.0 ! fwdaft_windns_diff_good\\012 ! Wind FwdAft Difference threshold to a wind to be considered good quality\\0125.0 ! fwdaft_windns_diff_bad\\012 ! Wind FwdAft Difference threshold to a wind to be considered bad quality\\0120.30 ! ratio_ntriplets_alltriplets\\012\\011 ! min ratio of triplets to all triplets for wind disparity histograms to be used for wind QA calculations.\\01213\\011 ! wdisp_hist_width_good\\012\\011 ! max histogram width to be called good quality.\\01225\\011 ! wdisp_hist_width_bad\\012\\011 ! histogram width at or above which is called bad quality.\\0123\\011 ! min_ngoodhist_vgwind\\012\\011 ! min number of good quality histograms for wind to be very good.\\0120\\011 ! max_nbadhist_vgwind\\012\\011 ! max number of bad quality histograms for wind to be very good quality.\\0122\\011 ! min_ngoodhist_goodwind\\012\\011 ! min number of good quality histograms for wind to be good quality.\\0121\\011 ! max_nbadhist_goodwind\\012\\011 ! max number of bad quality histograms for wind to be good quality.\\0121\\011 ! min_ngoodhist_badwind\\012\\011 ! min number of good quality histograms for wind to be bad quality.\\0122\\011 ! min_nbadhist_badwind \\012\\011 ! min number of bad quality histograms for wind to be bad quality.\\0120.1 ! max_frac_bad_winds\\012 ! maximum allowable fraction of winds to fail the FwdAft quality test\\0129999.0 ! max_mean_fwdaft_diff1 \\012 ! maximum allowable mean value of NS Wind FwdAft difference for good winds\\0128.0 ! max_mean_fwdaft_diff\\012 ! maximum allowable mean value of NS Wind FwdAft difference for all winds\\0120.75 ! max_frac_bad_gdqi\\012 ! maximum allowable fraction of bad GDQI's per camera\\012\\012\\012", "EXECUTABLE INFORMATION\\012MISR_EXEC_NAME:pge12ap.cc\\012MISR_EXEC_VERSION: V4.0_i2_PGE12AP\\012MISR_COMPOSITION_INFO_BEGIN\\012DATE OF BUILD: Tue Feb 28 16:54:42 EST 2006\\012BUILT BY: protack\\012HOST INFO: l0spg11: ClearCase 2003.06.10+ (IRIX64 6.5 10070055 IP35)\\012VOBS CONFIGURATION:\\012 /vobs/PCS/... V3.3\\012 /vobs/PGEvob/... V4.0\\012 /vobs/Shared/... V4.0\\012 /vobs/Lev3/... V4.0_i2_PGE12AP\\012LIB ENVIRONMENT:\\012 HDFEOS:/vol1/TS1/ssit/TOOLKIT_5.2.13/TOOLKIT/hdfeos/lib/sgi32\\012 HDF:/vol1/TS1/ssit/TOOLKIT_5.2.13/TOOLKIT/hdf/sgi32/HDF4.2r0/lib\\012 PGSTK:/vol1/TS1/ssit/TOOLKIT_5.2.13/TOOLKIT/lib/sgi32\\012COMPILER FLAGS\\012 -n32 -mips4 -r10000 -Ofast -OPT:roundoff=3\\012 -OPT:IEEE_arithmetic=3 -OPT:alias=typed -G0\\012 -LANG:std -LANG:restrict -g3 -DCPU_SGI -woff\\012 1478 -Wl,-woff,84 -Wl,-woff,85 -Wl,-woff,15\\012 -Wl,-woff,134 -DCXX_VERSION=MIPSpro Compilers: Version 7.4\\012 -DOSVERSION=6.5 -ptused\\012MISR_COMPOSITION_INFO_END\\012 Local Granule ID = MISR_AM1_GRP_TERRAIN_GM_P160_O032051_CF_F03_0024.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MI1B2T.A2005361.0620.003.2005362104938.CF.24.hdf\\012LID = 1309; Local Granule ID = MISR_AM1_GRP_TERRAIN_GM_P160_O032051_BF_F03_0024.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MI1B2T.A2005361.0620.003.2005362110246.BF.24.hdf\\012LID = 1310; Local Granule ID = MISR_AM1_GRP_TERRAIN_GM_P160_O032051_AF_F03_0024.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MI1B2T.A2005361.0620.003.2005362105008.AF.24.hdf\\012LID = 1311; Local Granule ID = MISR_AM1_GRP_TERRAIN_GM_P160_O032051_AN_F03_0024.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MI1B2T.A2005361.0620.003.2005362104312.AN.24.hdf\\012LID = 1312; Local Granule ID = MISR_AM1_GRP_TERRAIN_GM_P160_O032051_DA_F03_0024.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MI1B2T.A2005361.0620.003.2005362110246.DA.24.hdf\\012LID = 1313; Local Granule ID = MISR_AM1_GRP_TERRAIN_GM_P160_O032051_CA_F03_0024.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MI1B2T.A2005361.0620.003.2005362104230.CA.24.hdf\\012LID = 1314; Local Granule ID = MISR_AM1_GRP_TERRAIN_GM_P160_O032051_BA_F03_0024.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MI1B2T.A2005361.0620.003.2005362112919.BA.24.hdf\\012LID = 1315; Local Granule ID = MISR_AM1_GRP_TERRAIN_GM_P160_O032051_AA_F03_0024.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MI1B2T.A2005361.0620.003.2005362104230.AA.24.hdf\\012LID = 1316; Local Granule ID = MISR_AM1_GRP_ELLIPSOID_GM_P160_O032051_DF_F03_0024.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MI1B2E.A2005361.0620.003.2005362112933.DF.24.hdf\\012LID = 1317; Local Granule ID = MISR_AM1_GRP_ELLIPSOID_GM_P160_O032051_CF_F03_0024.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MI1B2E.A2005361.0620.003.2005362105208.CF.24.hdf\\012LID = 1318; Local Granule ID = MISR_AM1_GRP_ELLIPSOID_GM_P160_O032051_BF_F03_0024.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MI1B2E.A2005361.0620.003.2005362110302.BF.24.hdf\\012LID = 1319; Local Granule ID = MISR_AM1_GRP_ELLIPSOID_GM_P160_O032051_AF_F03_0024.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MI1B2E.A2005361.0620.003.2005362105250.AF.24.hdf\\012LID = 1320; Local Granule ID = MISR_AM1_GRP_ELLIPSOID_GM_P160_O032051_AN_F03_0024.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MI1B2E.A2005361.0620.003.2005362104717.AN.24.hdf\\012LID = 1321; Local Granule ID = MISR_AM1_GRP_ELLIPSOID_GM_P160_O032051_DA_F03_0024.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MI1B2E.A2005361.0620.003.2005362110303.DA.24.hdf\\012LID = 1322; Local Granule ID = MISR_AM1_GRP_ELLIPSOID_GM_P160_O032051_CA_F03_0024.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MI1B2E.A2005361.0620.003.2005362104527.CA.24.hdf\\012LID = 1323; Local Granule ID = MISR_AM1_GRP_ELLIPSOID_GM_P160_O032051_BA_F03_0024.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MI1B2E.A2005361.0620.003.2005362112934.BA.24.hdf\\012LID = 1324; Local Granule ID = MISR_AM1_GRP_ELLIPSOID_GM_P160_O032051_AA_F03_0024.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MI1B2E.A2005361.0620.003.2005362104547.AA.24.hdf\\012LID = 1325; Local Granule ID = MISR_AM1_GRP_RCCM_GM_P160_O032051_DF_F04_0025.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MIRCCM.A2005361.0620.004.2008074223441.DF.25.hdf\\012LID = 1326; Local Granule ID = MISR_AM1_GRP_RCCM_GM_P160_O032051_CF_F04_0025.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MIRCCM.A2005361.0620.004.2008074223954.CF.25.hdf\\012LID = 1327; Local Granule ID = MISR_AM1_GRP_RCCM_GM_P160_O032051_BF_F04_0025.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MIRCCM.A2005361.0620.004.2008074223410.BF.25.hdf\\012LID = 1328; Local Granule ID = MISR_AM1_GRP_RCCM_GM_P160_O032051_AF_F04_0025.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MIRCCM.A2005361.0620.004.2008074221836.AF.25.hdf\\012LID = 1329; Local Granule ID = MISR_AM1_GRP_RCCM_GM_P160_O032051_AN_F04_0025.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MIRCCM.A2005361.0620.004.2008074223450.AN.25.hdf\\012LID = 1330; Local Granule ID = MISR_AM1_GRP_RCCM_GM_P160_O032051_DA_F04_0025.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MIRCCM.A2005361.0620.004.2008074223440.DA.25.hdf\\012LID = 1331; Local Granule ID = MISR_AM1_GRP_RCCM_GM_P160_O032051_CA_F04_0025.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MIRCCM.A2005361.0620.004.2008074223451.CA.25.hdf\\012LID = 1332; Local Granule ID = MISR_AM1_GRP_RCCM_GM_P160_O032051_BA_F04_0025.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MIRCCM.A2005361.0620.004.2008074221905.BA.25.hdf\\012LID = 1333; Local Granule ID = MISR_AM1_GRP_RCCM_GM_P160_O032051_AA_F04_0025.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MIRCCM.A2005361.0620.004.2008074221804.AA.25.hdf\\012LID = 1334; Local Granule ID = MISR_AM1_GP_GMP_P160_O032051_F03_0013.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MIB2GEOP.A2005361.0620.002.2008071062115.13.hdf\\012LID = 1340; Local Granule ID = MISR_AM1_TASC_DEC_2005_F02_03.hdf\\012 Input Path = /MISR/OPS/S4PM-MISR-L2/data/ancillary/TASC/MISR_AM1_TASC_DEC_2005_F02_03.hdf\\012LID = 1500; Local Granule ID = MISR_AM1_ARP_PRFLTCHAR_F02_0002.hdf\\012 Input Path = /MISR/OPS/S4PM-MISR-L2/data/ancillary/ARP_static/MISR_AM1_ARP_PRFLTCHAR_F02_0002.hdf\\012LID = 1501; Local Granule ID = MISR_AM1_ARP_PRFLTCAL_F02_0005.hdf\\012 Input Path = /MISR/OPS/S4PM-MISR-L2/data/ancillary/ARP_static/MISR_AM1_ARP_PRFLTCAL_F02_0005.hdf\\012LID = 1502; Local Granule ID = MISR_AM1_ARP_INFLTCAL_T036_F02_0010.hdf\\012 Input Path = /MISR/OPS/S4PM-MISR-L2/data/ancillary/ARP_dynamic/MISR_AM1_ARP_INFLTCAL_T036_F02_0010.hdf\\012LID = 1503; Local Granule ID = MISR_AM1_ARP_CONFIG_F03_0003.hdf\\012 Input Path = /MISR/OPS/S4PM-MISR-L2/data/ancillary/ARP_static/MISR_AM1_ARP_CONFIG_F03_0003.hdf\\012LID = 951; Local Granule ID = MISR_AM1_TC_STEREO_P160_O032051_F08_0017.hdf\\012 Input Path = /tmp/214257.1.MISR_OPS.q/MIL2TCST.A2005361.0620.002.2008075002036.17.hdf\\012)\\01240.8 ! cam_line_repeat_time\\012 ! MISR camera line repeat time (msec)\\012.0001 ! BRF scale factor\\012!------------------------------------------------\\012! Threshold parameters\\012! Reference: None\\012! \\012!------------------------------------------------\\0120.0 ! min_rlra_height\\012 ! minimum acceptable value for RLRA height (m)\\01220000.0 ! max_rlra_height\\012 ! maximum acceptable value for RLRA height (m)\\0120.0 ! min_texture_index\\012 ! minimum acceptable value for texture index\\01210.0 ! max_texture_index\\012 ! maximum acceptable value for texture index\\012175.0 ! min_temperature\\012 ! minimum acceptable value for temperature (K)\\012340.0 ! max_temperature\\012 ! maximum acceptable value for temperature (K)\\0126.0 ! max_brf_value\\012 ! maximum acceptable value for BRF\\0120.0 ! min_albedo_value\\012 ! minimum acceptable value for albedo\\0126.0 ! max_albedo_value\\012 ! maximum acceptable value for albedo\\01280.0 ! max_view_angle_along\\012 ! maximum view angle in along-track direction (degrees)\\01225.0 ! max_view_angle_cross\\012 ! maximum view angle in cross-track direction (degrees)\\012!------------------------------------------------\\012! TOA Albedo Retrieval Configuration File parameters\\012! Reference: Level 2 Top-of-Atmosphere Albedo Algorithm\\012! Theoretical Basis Document, JPL D-13401, Rev B\\012!------------------------------------------------\\0120.04 ! mu0_thresh_albedo\\012 ! minimum cosine of solar zenith angle for calculation of albedos\\0128 ! max_brf_cam_dist_t\\012 ! maximum camera distance for filling in missing side-leaving BRFs\\0121 ! max_brf_cam_dist_s\\012 ! maximum camera distance for filling in missing side-leaving BRFs\\0120.0 ! min_liquid_cloud_temp\\012 ! minimum temperature for setting cloud phase = liquid (degrees C)\\012-43.0 ! max_ice_cloud_temp\\012 ! maximum temperature for setting cloud phase = ice (degrees C)\\0126 ! min_angle_det_clear\\012 ! minimum number of angles needed for applying Deterministic (clear) model\\0120.240 0.094 0.043 0.015 ! rayleigh_std\\012 ! standard Rayleigh optical depth, for each spectral band\\0128.0 ! scale_ht\\012 ! atmospheric scale height, H (km)\\0124 ! niter_det_clear\\012 ! number of iterations for clear sky deterministic model fit\\0122.0 ! chi_sq_thresh_azm\\012 ! threshold for determining goodness of clear-sky AZM fit\\01210 ! nbin_mu\\012 ! number of cosine of zenith angle sub-bins\\01290 ! nbin_phi\\012 ! number of azimuth angle sub-bins\\0120.9 ! mu0_thresh_saw\\012 ! minimum value of mu0 above which pure Solid Angle Weighting is used\\01230.0 ! toa_altitude\\012 ! TOA altitude for referencing expansive albedos (km)\\0125 ! nblock_expansive\\012 ! number of 140.8-km blocks contributing to expansive albedo calculation\\0120 ! force_albedo_method\\012 ! force albedo code through one method: 0 - do not force; 1 - cloudy determ;\\012 ! 2 - cloudy stoch; 3 - clear determ; 4 - solid angle weighting\\0121.640 ! alb_broadband_zeropoint\\012 ! a_0 regression coefficient to use for broadband albedo calculation\\0120.170 0.210 -0.18 0.530 ! alb_broadband_coeff\\012 ! coefficients (blue-band, green-band, red-band, nir-band in order)\\012 ! to use in calculating the broadband albedo\\0121368.0 ! alb_broadband_I0b\\012 ! \"I0_b\" coefficient to use in albedo broadband calculation\\0121 ! cssc_search_dist\\012 ! distance from center of lat/long cell to search for nearest land class, \\012 ! expressed as a whole number of CSSC cells\\0128 ! min_localb_cameras\\012 ! minimum number of cameras that satisfy criteria for computing local\\012 ! albedo - to crop local albedo at swath edges\\0121 ! reset_localb_to_fill\\012 ! whether or not to reset local albedo values at filled RLRAs to BADVALUE;\\012 ! 0 = do not reset; 1 = reset\\01210000.0 ! rlp_horiz_segment_len\\012 ! horizontal distance in meters over which look vectors expressed in SOM\\012\\011 ! coords can be linearly interpolated to give acceptable results\\0122 ! rlra_filter\\012 ! type of RLRA filtering to do in RLP: 0 = do not replace RLRA BAD_VALUEs;\\012 ! 1 = replace all BAD_VALUEs with 0.0; 2 = replace all BAD_VALUES with an\\012 ! average of nearby RLRA values\\0120 ! rlra_smooth\\012 ! whether to do RLRA smoothing in RLP:\\012 ! 0 = do not smooth RLRAs; 1 = smooth RLRAs after replacement\\012long\\012 ! target patch size used in height retrievals, along-track (pixels)\\0126 ! target_patch_cross \\012 ! target patch size used in height retrievals, cross-track (pixels)\\0120.75 ! m2_thresh\\012 ! M2 threshold\\0121.00 ! m3_thresh\\012 ! M3 threshold\\0126 ! rs_filter_window_along\\012 ! RS filter window size, along-track direction (pixels)\\0126 ! rs_filter_window_cross\\012 ! RS filter window size, cross-track direction (pixels)\\0120 ! rs_string_size (currently not used)\\012 ! RS along-track string size (pixels)\\01250.0 ! min_median_filter_pcnt\\012 ! minimum population of filter window to perform median filtering (percent)\\0124 ! m2m3_matcher_score\\012 ! M2+M3 matcher score\\0123 ! m2_matcher_score\\012 ! M2 matcher score\\0122 ! m3_matcher_score\\012 ! M3 matcher score\\0121 ! rs_matcher_score\\012 ! RS matcher score\\0120.0 ! min_stereo_cloud_height\\012 ! minimum allowable stereoscopic cloud height. (km)\\01220.0 ! max_stereo_cloud_height\\012 ! maximum allowable stereoscopic cloud height. (km)\\0121000.0 ! max_skew\\012 ! ray skewness blunder threshold (m)\\01210000.0 ! max_skew_zerowind\\012 ! ray skewness blunder threshold (m) for zero-wind heights.\\0120 ! skew_blunder_score\\012 ! ray skewness blunder score\\0121 ! skew_lc_score\\012 ! ray skewness test low confidence score\\012275.0 ! skew_hc_thresh\\012 ! ray skewness test high confidence threshold (m)\\0122 ! skew_hc_score\\012 ! ray skewness test high confidence score\\012562.0 ! height_unc\\012 ! stereoscopic height uncertainty increment\\0128 ! max_hc_score\\012 ! maximum score for declaring a stereoscopic height High Confidence\\0126 ! min_hc_score\\012 ! minimum score for declaring a stereoscopic height High Confidence\\0125 ! max_lc_score\\012 ! maximum score for declaring a stereoscopic height Low Confidence\\0121 ! min_lc_score\\012 ! minimum score for declaring a stereoscopic height Low Confidence\\0125.0 ! max_snow_water_eq\\012 ! maximum equivalent water amount which is not considered snow-covered (mm)\\0125.0 ! max_sea_ice_pcnt\\012 ! maximum sea ice cover which is not considered snow-covered (percent)\\0120.0 ! default_rlra_ht\\012 ! default rlra height (km above terrain)\\0123.0 ! default_cloud_ht\\012 ! default cloud height (km above terrain)\\0127 ! neighborhd_size\\012 ! # of 1.1 km samples, along- and cross-track, in terrain \"neighborhood\"\\0120 3 3 2 2 ! stereo_ht_table\\0121 1 1 1 2 ! stereoscopic height decision matrix (Table 5 of ATB)\\0121 1 1 2 2 ! 0 = \"No Retrieval\"\\0121 1 1 2 2 ! 1 = \"Keep\"\\0121 1 1 2 2 ! 2 = \"Surface\"\\012 ! 3 = \"Default Cloud\"\\0120 2 2 4 4 ! sdcm_table\\0121 1 1 1 4 ! 0 = \"No Retrieval\"\\0122 2 2 4 4 ! 1 = \"CloudHC\"\\0123 3 3 4 4 ! 2 = \"CloudLC\"\\0124 3 3 4 4 ! 3 = \"Near Surface\"\\012 ! 4 = \"Clear\"\\0120.0 ! texture_max_rdqi\\012 ! RDQI thresh for determ what is valid data in calc avg BRFs and text indices\\01292.0 ! max_scat_angle\\012 ! scattering angle threshold for establishing forward scattering\\0122.0 ! max_low_cloud\\012 ! low cloud upper limit for altitude binning (km)\\0126.0 ! max_mid_cloud\\012 ! middle cloud upper limit for altitude binning (km)\\012275.0 ! cloud_thickness\\012 ! assumed cloud thickness used in cloud shadow algorithm (m)\\012550.0 ! ray_cast_step_size\\012 ! horizontal ray-casting step size in cloud and topographic shadow alg (m)\\01235.2 ! max_ray_cast\\012 ! maximum horizontal distance for casting cloud and topographic shadow\\0120.5 ! prev_match_m2_thresh\\012 ! previous match method threshold for M2\\0120.5 ! prev_match_m3_thresh\\012 ! previous match method threshold for M3\\0122 ! pyramid_levels\\012 ! number of levels in stereo image pyramid\\012.FALSE. ! rs_match_flag\\012 ! whether to use the RS stereo matching method (flag)\\0125 ! height_ref_cam\\012 ! stereo height reference camera id\\0124 ! height_comp_cam_fwd\\012 ! stereo height forward comparison camera id\\0126 ! height_comp_cam_aft\\012 ! stereo height aft comparison camera id\\0127 ! previous_window_along\\012 ! along-track size of previous-match-method search window\\0125 ! previous_window_cross\\012 ! cross-track size of previous-match-method search window\\0125 ! pyramid_window_along\\012 ! along-track size of pyramid-match-method search window\\0125 ! pyramid_window_cross\\012 ! cross-track size of pyramid-match-method search window\\0122.0 ! blunder_thresh\\012 ! number of standard deviations used to compute height blunder limits\\012275.0 ! near_ellipsoid_tolerance\\012 ! distance from ellipsoid to be considered a misregistration correction point\\01210\\011 ! min_misreg_points\\012\\011 ! min number of misreg points needed to perform misregistration correction\\0122 ! max_misreg_cross_disp\\012\\011 ! maximum cross-track disparity to allow in misregistration calculation\\0121.5 ! max_misreg_height_diff\\012\\011 ! max diff btw surface ht and disparity-calc ht for point to be included in misreg calc (times resolution)\\0122\\011 ! max_peak_variance_cross\\012\\011 ! maximum cross-track variance from histogram peak to avoid cut\\0122\\011 ! max_peak_variance_along\\012\\011 ! maximum along-track variance from histogram peak to avoid cut\\0121.00\\011 ! max_misreg_cloud_frac\\012\\011 ! max frac of domain classified as cloudy (CLOUD_HC or CLOUD_LC) for misreg calc to be performed\\0125\\011 ! misreg_srch_neighborhd\\012\\011 ! area around point to search for land (NxN)\\0123.0 ! fwdaft_windns_diff_good\\012 ! Wind FwdAft Difference threshold to a wind to be considered good quality\\0125.0 ! fwdaft_windns_diff_bad\\012 ! Wind FwdAft Difference threshold to a wind to be considered bad quality\\0120.30 ! ratio_ntriplets_alltriplets\\012\\011 ! min ratio of triplets to all triplets for wind disparity histograms to be used for wind QA calculations.\\01213\\011 ! wdisp_hist_width_good\\012\\011 ! max histogram width to be called good quality.\\01225\\011 ! wdisp_hist_width_bad\\012\\011 ! histogram width at or above which is called bad quality.\\0123\\011 ! min_ngoodhist_vgwind\\012\\011 ! min number of good quality histograms for wind to be very good.\\0120\\011 ! max_nbadhist_vgwind\\012\\011 ! max number of bad quality histograms for wind to be very good quality.\\0122\\011 ! min_ngoodhist_goodwind\\012\\011 ! min number of good quality histograms for wind to be good quality.\\0121\\011 ! max_nbadhist_goodwind\\012\\011 ! max number of bad quality histograms for wind to be good quality.\\0121\\011 ! min_ngoodhist_badwind\\012\\011 ! min number of good quality histograms for wind to be bad quality.\\0122\\011 ! min_nbadhist_badwind \\012\\011 ! min number of bad quality histograms for wind to be bad quality.\\0120.1 ! max_frac_bad_winds\\012 ! maximum allowable fraction of winds to fail the FwdAft quality test\\0129999.0 ! max_mean_fwdaft_diff1 \\012 ! maximum allowable mean value of NS Wind FwdAft difference for good winds\\0128.0 ! max_mean_fwdaft_diff\\012 ! maximum allowable mean value of NS Wind FwdAft difference for all winds\\0120.75 ! max_frac_bad_gdqi\\012 ! maximum allowable fraction of bad GDQI's per camera\\012\\012\\012"; } StructMetadata { SwathStructure { } GridStructure { GRID_1 { String GridName "GeorectifiedRadianceAverage"; Int32 XDim 1056; Int32 YDim 640; Float64 UpperLeftPointMtrs 0.000000, 960000.000000; Float64 LowerRightMtrs 1584000.000000, 0.000000; String Projection GCTP_LAMAZ; Float64 ProjParams 6370997, 0, 0, 0, -92000000, 27050026.781464, 763442.187500, 454582.156250, 0, 0, 0, 0, 0; Int32 SphereCode 19; Dimension { Dimension_1 { String DimensionName "Camera"; Int32 Size 9; } Dimension_2 { String DimensionName "Band"; Int32 Size 4; } } DataField { DataField_1 { String DataFieldName "Average fill flag"; String DataType DFNT_INT8; String DimList "YDim", "XDim"; } DataField_2 { String DataFieldName "Average"; String DataType DFNT_FLOAT32; String DimList "YDim", "XDim", "Camera", "Band"; } DataField_3 { String DataFieldName "Average count"; String DataType DFNT_INT32; String DimList "YDim", "XDim", "Camera", "Band"; } } MergedFields { } } Alias GeorectifiedRadianceAverage GRID_1; GRID_2 { String GridName "GeorectifiedRadianceCovariance"; Int32 XDim 66; Int32 YDim 40; Float64 UpperLeftPointMtrs 0.000000, 960000.000000; Float64 LowerRightMtrs 1584000.000000, 0.000000; String Projection GCTP_LAMAZ; Float64 ProjParams 6370997, 0, 0, 0, -92000000, 27050026.781464, 767192.187500, 455332.156250, 0, 0, 0, 0, 0; Int32 SphereCode 19; Dimension { Dimension_1 { String DimensionName "CovarianceIndex"; Int32 Size 666; } } DataField { DataField_1 { String DataFieldName "Covariance fill flag"; String DataType DFNT_INT8; String DimList "YDim", "XDim"; } DataField_2 { String DataFieldName "Covariance"; String DataType DFNT_FLOAT32; String DimList "YDim", "XDim", "CovarianceIndex"; } DataField_3 { String DataFieldName "Covariance average 1"; String DataType DFNT_FLOAT32; String DimList "YDim", "XDim", "CovarianceIndex"; } DataField_4 { String DataFieldName "Covariance average 2"; String DataType DFNT_FLOAT32; String DimList "YDim", "XDim", "CovarianceIndex"; } DataField_5 { String DataFieldName "Covariance count"; String DataType DFNT_INT32; String DimList "YDim", "XDim", "CovarianceIndex"; } } MergedFields { } } Alias GeorectifiedRadianceCovariance GRID_2; } PointStructure { } } coremetadata { INVENTORYMETADATA { String GROUPTYPE MASTERGROUP; ECSDATAGRANULE { LOCALGRANULEID { Int32 NUM_VAL 1; String VALUE "MISR_AM1_CGGRP_SEP_2006_SITE_GOMACCS_F02_0019.hdf"; } PRODUCTIONDATETIME { Int32 NUM_VAL 1; String VALUE "2006-10-10T20:06:06.000Z"; } LOCALVERSIONID { Int32 NUM_VAL 1; String VALUE "MISR_EXEC_VERSION: V4.0_i2_PGE12AP MISR_EXEC_NAME:pge12ap.cc"; } } PGEVERSIONCLASS { PGEVERSION { Int32 NUM_VAL 1; String VALUE "4.0"; } } MEASUREDPARAMETER { MEASUREDPARAMETERCONTAINER { String CLASS "1"; QAFLAGS { String CLASS "1"; AUTOMATICQUALITYFLAGEXPLANATION { Int32 NUM_VAL 1; String CLASS "1"; String VALUE "Automatic quality determination software not yet implemented"; } AUTOMATICQUALITYFLAG { Int32 NUM_VAL 1; String CLASS "1"; String VALUE "Not Investigated"; } } PARAMETERNAME { String CLASS "1"; Int32 NUM_VAL 1; String VALUE "Granule"; } } } COLLECTIONDESCRIPTIONCLASS { VERSIONID { Int32 NUM_VAL 1; Int32 VALUE 2; } SHORTNAME { Int32 NUM_VAL 1; String VALUE "MI3MRDR"; } } INPUTGRANULE { INPUTPOINTER { Int32 NUM_VAL 55; String VALUE "MISR_AM1_PGE12AP_PCS_CONFIG_F01_0001.ascii", "LGID:MI3MRDR:001:MISR_AM1_CGGRP_SEP_2006_SITE_GOMACCS_F03_0018.hdf"; } } SPATIALDOMAINCONTAINER { HORIZONTALSPATIALDOMAINCONTAINER { BOUNDINGRECTANGLE { EASTBOUNDINGCOORDINATE { Int32 NUM_VAL 1; Float64 VALUE -84.0; } WESTBOUNDINGCOORDINATE { Int32 NUM_VAL 1; Float64 VALUE -100.0; } SOUTHBOUNDINGCOORDINATE { Int32 NUM_VAL 1; Float64 VALUE 24.0; } NORTHBOUNDINGCOORDINATE { Int32 NUM_VAL 1; Float64 VALUE 32.0; } } } } RANGEDATETIME { RANGEENDINGDATE { Int32 NUM_VAL 1; String VALUE "2006-09-30"; } RANGEENDINGTIME { Int32 NUM_VAL 1; String VALUE "23:59:59"; } RANGEBEGINNINGDATE { Int32 NUM_VAL 1; String VALUE "2006-09-01"; } RANGEBEGINNINGTIME { Int32 NUM_VAL 1; String VALUE "00:00:00"; } } ADDITIONALATTRIBUTES { ADDITIONALATTRIBUTESCONTAINER { String CLASS "1"; ADDITIONALATTRIBUTENAME { String CLASS "1"; Int32 NUM_VAL 1; String VALUE "SP_AM_MISR_ProductVersion"; } INFORMATIONCONTENT { String CLASS "1"; PARAMETERVALUE { Int32 NUM_VAL 1; String CLASS "1"; String VALUE "19"; } } } } } } Average%20fill%20flag { Int32 _FillValue 0; } Average%20fill%20flag_dim_0 { String name "YDim:GeorectifiedRadianceAverage"; } Average%20fill%20flag_dim_1 { String name "XDim:GeorectifiedRadianceAverage"; } Covariance%20fill%20flag { Int32 _FillValue 0; } Covariance%20fill%20flag_dim_0 { String name "YDim:GeorectifiedRadianceCovariance"; } Covariance%20fill%20flag_dim_1 { String name "XDim:GeorectifiedRadianceCovariance"; } Average { Float32 _FillValue -9999; } Average_dim_0 { String name "YDim:GeorectifiedRadianceAverage"; } Average_dim_1 { String name "XDim:GeorectifiedRadianceAverage"; } Average_dim_2 { String name "Camera:GeorectifiedRadianceAverage"; } Average_dim_3 { String name "Band:GeorectifiedRadianceAverage"; } Average%20count { Int32 _FillValue 0; } Average%20count_dim_0 { String name "YDim:GeorectifiedRadianceAverage"; } Average%20count_dim_1 { String name "XDim:GeorectifiedRadianceAverage"; } Average%20count_dim_2 { String name "Camera:GeorectifiedRadianceAverage"; } Average%20count_dim_3 { String name "Band:GeorectifiedRadianceAverage"; } Covariance { Float32 _FillValue 0; } Covariance_dim_0 { String name "YDim:GeorectifiedRadianceCovariance"; } Covariance_dim_1 { String name "XDim:GeorectifiedRadianceCovariance"; } Covariance_dim_2 { String name "CovarianceIndex:GeorectifiedRadianceCovariance"; } Covariance%20average%201 { Float32 _FillValue -9999; } Covariance%20average%201_dim_0 { String name "YDim:GeorectifiedRadianceCovariance"; } Covariance%20average%201_dim_1 { String name "XDim:GeorectifiedRadianceCovariance"; } Covariance%20average%201_dim_2 { String name "CovarianceIndex:GeorectifiedRadianceCovariance"; } Covariance%20average%202 { Float32 _FillValue -9999; } Covariance%20average%202_dim_0 { String name "YDim:GeorectifiedRadianceCovariance"; } Covariance%20average%202_dim_1 { String name "XDim:GeorectifiedRadianceCovariance"; } Covariance%20average%202_dim_2 { String name "CovarianceIndex:GeorectifiedRadianceCovariance"; } Covariance%20count { Int32 _FillValue 0; } Covariance%20count_dim_0 { String name "YDim:GeorectifiedRadianceCovariance"; } Covariance%20count_dim_1 { String name "XDim:GeorectifiedRadianceCovariance"; } Covariance%20count_dim_2 { String name "CovarianceIndex:GeorectifiedRadianceCovariance"; } }