| Ocean_blocks.numbers: |
7, 8, 9, 10, 11, 12, 13, 14, 15, 16, 17, 18, 19, 20, 21, 22, 23, 91, 92, 93, 94, 95, 96, 97, 99, 102, 111, 112, 113, 114, 115, 116, 117, 118, 119, 120, 121, 122, 123, 124, 125, 126, 127, 129, 130, 131, 132, 133, 134, 135, 136, 137, 138, 139, 140, 141, 142, 143, 144, 145, 175, 176, 177, 178, 179, 180, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0
|
| HDF_ANNOT: |
"SCIENCE CONFIGURATION INFORMATION\\012!------------------------------------------------\\012! PGE 8c Albedo Science Configuration File parameters\\012! Reference: TOA/Cloud Product Software Requirements\\012! Document, JPL D-XXXXX\\012!------------------------------------------------\\0120 ! start block override\\012 ! starting block to process. If =0, use L1B2 starting block. \\0120 ! end block override\\012 ! ending block to process. If =0, use L1B2 ending block. \\012.false. .false. .true. .false. ! ep_res_1x1_needed(:,1)\\012 ! channel needed at 1x1 res, (band=1:4,cam=1)\\012.false. .false. .true. .false. ! ep_res_1x1_needed(:,2)\\012 ! channel needed at 1x1 res, (band=1:4,cam=2)\\012.false. .false. .true. .false. ! ep_res_1x1_needed(:,3)\\012 ! channel needed at 1x1 res, (band=1:4,cam=3)\\012.false. .false. .true. .false. ! ep_res_1x1_needed(:,4)\\012 ! channel needed at 1x1 res, (band=1:4,cam=4)\\012.false. .false. .true. .false. ! ep_res_1x1_needed(:,5)\\012 ! channel needed at 1x1 res, (band=1:4,cam=5)\\012.false. .false. .true. .false. ! ep_res_1x1_needed(:,6)\\012 ! channel needed at 1x1 res, (band=1:4,cam=6)\\012.false. .false. .true. .false ! ep_res_1x1_needed(:,7)\\012 ! channel needed at 1x1 res, (band=1:4,cam=7)\\012.false. .false. .true. .false. ! ep_res_1x1_needed(:,8)\\012 ! channel needed at 1x1 res, (band=1:4,cam=8)\\012.false. .false. .true. .false. ! ep_res_1x1_needed(:,9)\\012 ! channel needed at 1x1 res, (band=1:4,cam=9)\\012.true. .true. .true. .true. ! ep_res_4x4_needed(:,1)\\012 ! channel needed at 4x4 res, (band=1:4,cam=1)\\012.true. .true. .true. .true. ! ep_res_4x4_needed(:,2)\\012 ! channel needed at 4x4 res, (band=1:4,cam=2)\\012.true. .true. .true. .true. ! ep_res_4x4_needed(:,3)\\012 ! channel needed at 4x4 res, (band=1:4,cam=3)\\012.true. .true. .true. .true. ! ep_res_4x4_needed(:,4)\\012 ! channel needed at 4x4 res, (band=1:4,cam=4)\\012.true. .true. .true. .true. ! ep_res_4x4_needed(:,5)\\012 ! channel needed at 4x4 res, (band=1:4,cam=5)\\012.true. .true. .true. .true. ! ep_res_4x4_needed(:,6)\\012 ! channel needed at 4x4 res, (band=1:4,cam=6)\\012.true. .true. .true. .true. ! ep_res_4x4_needed(:,7)\\012 ! channel needed at 4x4 res, (band=1:4,cam=7)\\012.true. .true. .true. .true. ! ep_res_4x4_needed(:,8)\\012 ! channel needed at 4x4 res, (band=1:4,cam=8)\\012.true. .true. .true. .true. ! ep_res_4x4_needed(:,9)\\012 ! channel needed at 4x4 res, (band=1:4,cam=9)\\012.false. .false. .false. .false. ! tp_res_1x1_needed(:,1)\\012 ! channel needed at 1x1 res, (band=1:4,cam=1)\\012.false. .false. .false. .false. ! tp_res_1x1_needed(:,2)\\012 ! channel needed at 1x1 res, (band=1:4,cam=2)\\012.false. .false. .false. .false. ! tp_res_1x1_needed(:,3)\\012 ! channel needed at 1x1 res, (band=1:4,cam=3)\\012.false. .false. .false. .false. ! tp_res_1x1_needed(:,4)\\012 ! channel needed at 1x1 res, (band=1:4,cam=4)\\012.false. .false. .false. .false. ! tp_res_1x1_needed(:,5)\\012 ! channel needed at 1x1 res, (band=1:4,cam=5)\\012.false. .false. .false. .false. ! tp_res_1x1_needed(:,6)\\012 ! channel needed at 1x1 res, (band=1:4,cam=6)\\012.false. .false. .false. .false ! tp_res_1x1_needed(:,7)\\012 ! channel needed at 1x1 res, (band=1:4,cam=7)\\012.false. .false. .false. .false. ! tp_res_1x1_needed(:,8)\\012 ! channel needed at 1x1 res, (band=1:4,cam=8)\\012.false. .false. .false. .false. ! tp_res_1x1_needed(:,9)\\012 ! channel needed at 1x1 res, (band=1:4,cam=9)\\012.false. .false. .false. .false. ! tp_res_4x4_needed(:,1)\\012 ! channel needed at 4x4 res, (band=1:4,cam=1)\\012.false. .false. .false. .false. ! tp_res_4x4_needed(:,2)\\012 ! channel needed at 4x4 res, (band=1:4,cam=2)\\012.false. .false. .false. .false. ! tp_res_4x4_needed(:,3)\\012 ! channel needed at 4x4 res, (band=1:4,cam=3)\\012.false. .false. .false. .false. ! tp_res_4x4_needed(:,4)\\012 ! channel needed at 4x4 res, (band=1:4,cam=4)\\012.false. .false. .false. .false. ! tp_res_4x4_needed(:,5)\\012 ! channel needed at 4x4 res, (band=1:4,cam=5)\\012.false. .false. .false. .false. ! tp_res_4x4_needed(:,6)\\012 ! channel needed at 4x4 res, (band=1:4,cam=6)\\012.false. .false. .false. .false. ! tp_res_4x4_needed(:,7)\\012 ! channel needed at 4x4 res, (band=1:4,cam=7)\\012.false. .false. .false. .false. ! tp_res_4x4_needed(:,8)\\012 ! channel needed at 4x4 res, (band=1:4,cam=8)\\012.false. .false. .false. .false. ! tp_res_4x4_needed(:,9)\\012 ! channel needed at 4x4 res, (band=1:4,cam=9)\\0120.0 ! extrn_min_snow_ice_pcnt\\012 ! minimum acceptable snow/ice percent value from external source\\012100.0 ! extrn_max_snow_ice_pcnt\\012 ! maximum acceptable snow/ice percent value from external source\\0120.0 ! extrn_min_snow_water_eq\\012 ! min acceptable snow water equivalent value from external source (mm)\\0121000.0 ! extrn_max_snow_water_eq\\012 ! max acceptable snow water equivalent value from external source (mm)\\0120.0 ! extrn_min_cloud_height\\012 ! minimum acceptable cloud height value from external source (km)\\01225.0 ! extrn_max_cloud_height\\012 ! maximum acceptable cloud height value from external source (km)\\0121 ! rdqi1\\012 ! maximum acceptable RDQI used in averaging data to appropriate resolution\\0123 ! rdqi2\\012 ! RDQI val to use during the computation of avg RDQI, for each RDQI > RDQI1\\0120 ! rdqi4\\012 ! maximum acceptable RDQI used in calculating BRFs\\0120.01 ! mu0_thresh\\012 ! regional cosine of solar zenith angle threshold\\0123 ! ref_band\\012 ! reference band (red band)\\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\\012", "EXECUTABLE INFORMATION\\012MISR_EXEC_NAME:TC_AL_postprocess.c\\012MISR_EXEC_VERSION: V4.0_i3_PGE8BC\\012MISR_COMPOSITION_INFO_BEGIN\\012DATE OF BUILD: Wed May 10 13:30:27 EDT 2006\\012BUILT BY: sbaekins\\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/L2TC/... V4.0_i3_PGE8BC\\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 -O3 -g3 -fullwarn -DCPU_SGI\\012 -Wl,-woff,84 -Wl,-woff,85 -Wl,-woff,15 -Wl,-woff,134\\012 -DCC_VERSION=MIPSpro Compilers: Version 7.4\\012 -DOSVERSION=6.5\\012MISR_COMPOSITION_INFO_END\\012. .false. ! ep_res_1x1_needed(:,3)\\012 ! channel needed at 1x1 res, (band=1:4,cam=3)\\012.false. .false. .true. .false. ! ep_res_1x1_needed(:,4)\\012 ! channel needed at 1x1 res, (band=1:4,cam=4)\\012.false. .false. .true. .false. ! ep_res_1x1_needed(:,5)\\012 ! channel needed at 1x1 res, (band=1:4,cam=5)\\012.false. .false. .true. .false. ! ep_res_1x1_needed(:,6)\\012 ! channel needed at 1x1 res, (band=1:4,cam=6)\\012.false. .false. .true. .false ! ep_res_1x1_needed(:,7)\\012 ! channel needed at 1x1 res, (band=1:4,cam=7)\\012.false. .false. .true. .false. ! ep_res_1x1_needed(:,8)\\012 ! channel needed at 1x1 res, (band=1:4,cam=8)\\012.false. .false. .true. .false. ! ep_res_1x1_needed(:,9)\\012 ! channel needed at 1x1 res, (band=1:4,cam=9)\\012.true. .true. .true. .true. ! ep_res_4x4_needed(:,1)\\012 ! channel needed at 4x4 res, (band=1:4,cam=1)\\012.true. .true. .true. .true. ! ep_res_4x4_needed(:,2)\\012 ! channel needed at 4x4 res, (band=1:4,cam=2)\\012.true. .true. .true. .true. ! ep_res_4x4_needed(:,3)\\012 ! channel needed at 4x4 res, (band=1:4,cam=3)\\012.true. .true. .true. .true. ! ep_res_4x4_needed(:,4)\\012 ! channel needed at 4x4 res, (band=1:4,cam=4)\\012.true. .true. .true. .true. ! ep_res_4x4_needed(:,5)\\012 ! channel needed at 4x4 res, (band=1:4,cam=5)\\012.true. .true. .true. .true. ! ep_res_4x4_needed(:,6)\\012 ! channel needed at 4x4 res, (band=1:4,cam=6)\\012.true. .true. .true. .true. ! ep_res_4x4_needed(:,7)\\012 ! channel needed at 4x4 res, (band=1:4,cam=7)\\012.true. .true. .true. .true. ! ep_res_4x4_needed(:,8)\\012 ! channel needed at 4x4 res, (band=1:4,cam=8)\\012.true. .true. .true. .true. ! ep_res_4x4_needed(:,9)\\012 ! channel needed at 4x4 res, (band=1:4,cam=9)\\012.false. .false. .false. .false. ! tp_res_1x1_needed(:,1)\\012 ! channel needed at 1x1 res, (band=1:4,cam=1)\\012.false. .false. .false. .false. ! tp_res_1x1_needed(:,2)\\012 ! channel needed at 1x1 res, (band=1:4,cam=2)\\012.false. .false. .false. .false. ! tp_res_1x1_needed(:,3)\\012 ! channel needed at 1x1 res, (band=1:4,cam=3)\\012.false. .false. .false. .false. ! tp_res_1x1_needed(:,4)\\012 ! channel needed at 1x1 res, (band=1:4,cam=4)\\012.false. .false. .false. .false. ! tp_res_1x1_needed(:,5)\\012 ! channel needed at 1x1 res, (band=1:4,cam=5)\\012.false. .false. .false. .false. ! tp_res_1x1_needed(:,6)\\012 ! channel needed at 1x1 res, (band=1:4,cam=6)\\012.false. .false. .false. .false ! tp_res_1x1_needed(:,7)\\012 ! channel needed at 1x1 res, (band=1:4,cam=7)\\012.false. .false. .false. .false. ! tp_res_1x1_needed(:,8)\\012 ! channel needed at 1x1 res, (band=1:4,cam=8)\\012.false. .false. .false. .false. ! tp_res_1x1_needed(:,9)\\012 ! channel needed at 1x1 res, (band=1:4,cam=9)\\012.false. .false. .false. .false. ! tp_res_4x4_needed(:,1)\\012 ! channel needed at 4x4 res, (band=1:4,cam=1)\\012.false. .false. .false. .false. ! tp_res_4x4_needed(:,2)\\012 ! channel needed at 4x4 res, (band=1:4,cam=2)\\012.false. .false. .false. .false. ! tp_res_4x4_needed(:,3)\\012 ! channel needed at 4x4 res, (band=1:4,cam=3)\\012.false. .false. .false. .false. ! tp_res_4x4_needed(:,4)\\012 ! channel needed at 4x4 res, (band=1:4,cam=4)\\012.false. .false. .false. .false. ! tp_res_4x4_needed(:,5)\\012 ! channel needed at 4x4 res, (band=1:4,cam=5)\\012.false. .false. .false. .false. ! tp_res_4x4_needed(:,6)\\012 ! channel needed at 4x4 res, (band=1:4,cam=6)\\012.false. .false. .false. .false. ! tp_res_4x4_needed(:,7)\\012 ! channel needed at 4x4 res, (band=1:4,cam=7)\\012.false. .false. .false. .false. ! tp_res_4x4_needed(:,8)\\012 ! channel needed at 4x4 res, (band=1:4,cam=8)\\012.false. .false. .false. .false. ! tp_res_4x4_needed(:,9)\\012 ! channel needed at 4x4 res, (band=1:4,cam=9)\\0120.0 ! extrn_min_snow_ice_pcnt\\012 ! minimum acceptable snow/ice percent value from external source\\012100.0 ! extrn_max_snow_ice_pcnt\\012 ! maximum acceptable snow/ice percent value from external source\\0120.0 ! extrn_min_snow_water_eq\\012 ! min acceptable snow water equivalent value from external source (mm)\\0121000.0 ! extrn_max_snow_water_eq\\012 ! max acceptable snow water equivalent value from external source (mm)\\0120.0 ! extrn_min_cloud_height\\012 ! minimum acceptable cloud height value from external source (km)\\01225.0 ! extrn_max_cloud_height\\012 ! maximum acceptable cloud height value from external source (km)\\0121 ! rdqi1\\012 ! maximum acceptable RDQI used in averaging data to appropriate resolution\\0123 ! rdqi2\\012 ! RDQI val to use during the computation of avg RDQI, for each RDQI > RDQI1\\0120 ! rdqi4\\012 ! maximum acceptable RDQI used in calculating BRFs\\0120.01 ! mu0_thresh\\012 ! regional cosine of solar zenith angle threshold\\0123 ! ref_band\\012 ! reference band (red band)\\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\\012", "INPUT FILES INFORMATION\\012LID = 922; Local Granule ID = MISR_AM1_TC_AL_SCI_CONFIG_F05_0007.txt\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/data/ancillary/CONFIG/MISR_AM1_TC_AL_SCI_CONFIG_F05_0007.txt\\012LID = 930; Local Granule ID = MISR_AM1_AZM_F01_01.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/data/ancillary/AZM/MISR_AM1_AZM_F01_01.hdf\\012LID = 1101; Local Granule ID = MISR_AM1_PGE8C_PCS_CONFIG_F02_0005.txt\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/data/ancillary/CONFIG/MISR_AM1_PGE8C_PCS_CONFIG_F02_0005.txt\\012LID = 1304; Local Granule ID = MISR_AM1_AGP_P162_F01_24.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/data/ancillary/AGP/MISR_AM1_AGP_P162_F01_24.hdf\\012LID = 1301; Local Granule ID = MISR_AM1_CSSC_F01_05.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/data/ancillary/CSSC/MISR_AM1_CSSC_F01_05.hdf\\012LID = 1307; Local Granule ID = MISR_AM1_GRP_TERRAIN_GM_P162_O025032_DF_F03_0024.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/data/MI1B2T/MI1B2T.A2004245.0633.003.2007097045432.DF.24.hdf\\012LID = 1308; Local Granule ID = MISR_AM1_GRP_TERRAIN_GM_P162_O025032_CF_F03_0024.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/data/MI1B2T/MI1B2T.A2004245.0633.003.2007097045432.CF.24.hdf\\012LID = 1309; Local Granule ID = MISR_AM1_GRP_TERRAIN_GM_P162_O025032_BF_F03_0024.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/data/MI1B2T/MI1B2T.A2004245.0633.003.2007097045412.BF.24.hdf\\012LID = 1310; Local Granule ID = MISR_AM1_GRP_TERRAIN_GM_P162_O025032_AF_F03_0024.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/data/MI1B2T/MI1B2T.A2004245.0633.003.2007097045412.AF.24.hdf\\012LID = 1311; Local Granule ID = MISR_AM1_GRP_TERRAIN_GM_P162_O025032_AN_F03_0024.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/data/MI1B2T/MI1B2T.A2004245.0633.003.2007097045412.AN.24.hdf\\012LID = 1312; Local Granule ID = MISR_AM1_GRP_TERRAIN_GM_P162_O025032_DA_F03_0024.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/data/MI1B2T/MI1B2T.A2004245.0633.003.2007097045432.DA.24.hdf\\012LID = 1313; Local Granule ID = MISR_AM1_GRP_TERRAIN_GM_P162_O025032_CA_F03_0024.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/data/MI1B2T/MI1B2T.A2004245.0633.003.2007097045432.CA.24.hdf\\012LID = 1314; Local Granule ID = MISR_AM1_GRP_TERRAIN_GM_P162_O025032_BA_F03_0024.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/data/MI1B2T/MI1B2T.A2004245.0633.003.2007097045412.BA.24.hdf\\012LID = 1315; Local Granule ID = MISR_AM1_GRP_TERRAIN_GM_P162_O025032_AA_F03_0024.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/data/MI1B2T/MI1B2T.A2004245.0633.003.2007097045411.AA.24.hdf\\012LID = 1316; Local Granule ID = MISR_AM1_GRP_ELLIPSOID_GM_P162_O025032_DF_F03_0024.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/data/MI1B2E/MI1B2E.A2004245.0633.003.2007097045432.DF.24.hdf\\012LID = 1317; Local Granule ID = MISR_AM1_GRP_ELLIPSOID_GM_P162_O025032_CF_F03_0024.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/data/MI1B2E/MI1B2E.A2004245.0633.003.2007097045432.CF.24.hdf\\012LID = 1318; Local Granule ID = MISR_AM1_GRP_ELLIPSOID_GM_P162_O025032_BF_F03_0024.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/data/MI1B2E/MI1B2E.A2004245.0633.003.2007097045412.BF.24.hdf\\012LID = 1319; Local Granule ID = MISR_AM1_GRP_ELLIPSOID_GM_P162_O025032_AF_F03_0024.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/data/MI1B2E/MI1B2E.A2004245.0633.003.2007097045412.AF.24.hdf\\012LID = 1320; Local Granule ID = MISR_AM1_GRP_ELLIPSOID_GM_P162_O025032_AN_F03_0024.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/data/MI1B2E/MI1B2E.A2004245.0633.003.2007097045412.AN.24.hdf\\012LID = 1321; Local Granule ID = MISR_AM1_GRP_ELLIPSOID_GM_P162_O025032_DA_F03_0024.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/data/MI1B2E/MI1B2E.A2004245.0633.003.2007097045432.DA.24.hdf\\012LID = 1322; Local Granule ID = MISR_AM1_GRP_ELLIPSOID_GM_P162_O025032_CA_F03_0024.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/data/MI1B2E/MI1B2E.A2004245.0633.003.2007097045432.CA.24.hdf\\012LID = 1323; Local Granule ID = MISR_AM1_GRP_ELLIPSOID_GM_P162_O025032_BA_F03_0024.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/data/MI1B2E/MI1B2E.A2004245.0633.003.2007097045412.BA.24.hdf\\012LID = 1324; Local Granule ID = MISR_AM1_GRP_ELLIPSOID_GM_P162_O025032_AA_F03_0024.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/data/MI1B2E/MI1B2E.A2004245.0633.003.2007097045411.AA.24.hdf\\012LID = 1325; Local Granule ID = MISR_AM1_GRP_RCCM_GM_P162_O025032_DF_F04_0024.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/data/MIRCCM/MIRCCM.A2004245.0633.004.2007097051515.DF.24.hdf\\012LID = 1326; Local Granule ID = MISR_AM1_GRP_RCCM_GM_P162_O025032_CF_F04_0024.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/data/MIRCCM/MIRCCM.A2004245.0633.004.2007097050247.CF.24.hdf\\012LID = 1327; Local Granule ID = MISR_AM1_GRP_RCCM_GM_P162_O025032_BF_F04_0024.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/data/MIRCCM/MIRCCM.A2004245.0633.004.2007097051454.BF.24.hdf\\012LID = 1328; Local Granule ID = MISR_AM1_GRP_RCCM_GM_P162_O025032_AF_F04_0024.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/data/MIRCCM/MIRCCM.A2004245.0633.004.2007097050227.AF.24.hdf\\012LID = 1329; Local Granule ID = MISR_AM1_GRP_RCCM_GM_P162_O025032_AN_F04_0024.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/data/MIRCCM/MIRCCM.A2004245.0633.004.2007097050449.AN.24.hdf\\012LID = 1330; Local Granule ID = MISR_AM1_GRP_RCCM_GM_P162_O025032_DA_F04_0024.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/data/MIRCCM/MIRCCM.A2004245.0633.004.2007097051454.DA.24.hdf\\012LID = 1331; Local Granule ID = MISR_AM1_GRP_RCCM_GM_P162_O025032_CA_F04_0024.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/data/MIRCCM/MIRCCM.A2004245.0633.004.2007097050227.CA.24.hdf\\012LID = 1332; Local Granule ID = MISR_AM1_GRP_RCCM_GM_P162_O025032_BA_F04_0024.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/data/MIRCCM/MIRCCM.A2004245.0633.004.2007097051515.BA.24.hdf\\012LID = 1333; Local Granule ID = MISR_AM1_GRP_RCCM_GM_P162_O025032_AA_F04_0024.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/data/MIRCCM/MIRCCM.A2004245.0633.004.2007097050216.AA.24.hdf\\012LID = 1334; Local Granule ID = MISR_AM1_GP_GMP_P162_O025032_F03_0013.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/data/MIB2GEOP/MIB2GEOP.A2004245.0633.002.2007096224043.13.hdf\\012LID = 1340; Local Granule ID = MISR_AM1_TASC_SEP_F01_01.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/data/ancillary/TASC/MISR_AM1_TASC_SEP_F01_01.hdf\\012LID = 1500; Local Granule ID = MISR_AM1_ARP_PRFLTCHAR_F02_0002.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/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 = /vol1/OPS/S4PM-MISR-REPR/data/ancillary/ARP_static/MISR_AM1_ARP_PRFLTCAL_F02_0005.hdf\\012LID = 1502; Local Granule ID = MISR_AM1_ARP_INFLTCAL_T028_F02_0010.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/data/ancillary/ARP_dynamic/MISR_AM1_ARP_INFLTCAL_T028_F02_0010.hdf\\012LID = 1503; Local Granule ID = MISR_AM1_ARP_CONFIG_F03_0003.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/data/ancillary/ARP_static/MISR_AM1_ARP_CONFIG_F03_0003.hdf\\012LID = 951; Local Granule ID = MISR_AM1_TC_STEREO_P162_O025032_F08_0016.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/data/MIL2TCST/MIL2TCST.A2004245.0633.002.2007097053809.16.hdf\\012_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\\012", "RUNTIME ENVIRONMENT INFORMATION\\012DATE OF RUN: Sat Apr 7 21:51:57 2007\\012HOST INFO: l0spg10: (IRIX64 6.5 01090133 IP35)\\012RUN BY: s4pmopsr\\012UNIQUE FILE NAME: MISR_AM1_TC_ALBEDO_P162_O025032_F04_0008.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-REPR/strings/terra/stations/reprocessing/run_algorithm/RUNNING.RUN_MI8C.2004245063325/DO.RUN_MI8C.2004245063325\\012 PGSMSG = /vol1/OPS/S4PM-MISR-REPR/strings/terra/stations/reprocessing/run_algorithm/RUNNING.RUN_MI8C.2004245063325/../MI8C/40003/MSGS\\012/S4PM-MISR-REPR/data/ancillary/AGP/MISR_AM1_AGP_P162_F01_24.hdf\\012LID = 1301; Local Granule ID = MISR_AM1_CSSC_F01_05.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/data/ancillary/CSSC/MISR_AM1_CSSC_F01_05.hdf\\012LID = 1307; Local Granule ID = MISR_AM1_GRP_TERRAIN_GM_P162_O025032_DF_F03_0024.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/data/MI1B2T/MI1B2T.A2004245.0633.003.2007097045432.DF.24.hdf\\012LID = 1308; Local Granule ID = MISR_AM1_GRP_TERRAIN_GM_P162_O025032_CF_F03_0024.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/data/MI1B2T/MI1B2T.A2004245.0633.003.2007097045432.CF.24.hdf\\012LID = 1309; Local Granule ID = MISR_AM1_GRP_TERRAIN_GM_P162_O025032_BF_F03_0024.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/data/MI1B2T/MI1B2T.A2004245.0633.003.2007097045412.BF.24.hdf\\012LID = 1310; Local Granule ID = MISR_AM1_GRP_TERRAIN_GM_P162_O025032_AF_F03_0024.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/data/MI1B2T/MI1B2T.A2004245.0633.003.2007097045412.AF.24.hdf\\012LID = 1311; Local Granule ID = MISR_AM1_GRP_TERRAIN_GM_P162_O025032_AN_F03_0024.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/data/MI1B2T/MI1B2T.A2004245.0633.003.2007097045412.AN.24.hdf\\012LID = 1312; Local Granule ID = MISR_AM1_GRP_TERRAIN_GM_P162_O025032_DA_F03_0024.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/data/MI1B2T/MI1B2T.A2004245.0633.003.2007097045432.DA.24.hdf\\012LID = 1313; Local Granule ID = MISR_AM1_GRP_TERRAIN_GM_P162_O025032_CA_F03_0024.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/data/MI1B2T/MI1B2T.A2004245.0633.003.2007097045432.CA.24.hdf\\012LID = 1314; Local Granule ID = MISR_AM1_GRP_TERRAIN_GM_P162_O025032_BA_F03_0024.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/data/MI1B2T/MI1B2T.A2004245.0633.003.2007097045412.BA.24.hdf\\012LID = 1315; Local Granule ID = MISR_AM1_GRP_TERRAIN_GM_P162_O025032_AA_F03_0024.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/data/MI1B2T/MI1B2T.A2004245.0633.003.2007097045411.AA.24.hdf\\012LID = 1316; Local Granule ID = MISR_AM1_GRP_ELLIPSOID_GM_P162_O025032_DF_F03_0024.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/data/MI1B2E/MI1B2E.A2004245.0633.003.2007097045432.DF.24.hdf\\012LID = 1317; Local Granule ID = MISR_AM1_GRP_ELLIPSOID_GM_P162_O025032_CF_F03_0024.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/data/MI1B2E/MI1B2E.A2004245.0633.003.2007097045432.CF.24.hdf\\012LID = 1318; Local Granule ID = MISR_AM1_GRP_ELLIPSOID_GM_P162_O025032_BF_F03_0024.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/data/MI1B2E/MI1B2E.A2004245.0633.003.2007097045412.BF.24.hdf\\012LID = 1319; Local Granule ID = MISR_AM1_GRP_ELLIPSOID_GM_P162_O025032_AF_F03_0024.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/data/MI1B2E/MI1B2E.A2004245.0633.003.2007097045412.AF.24.hdf\\012LID = 1320; Local Granule ID = MISR_AM1_GRP_ELLIPSOID_GM_P162_O025032_AN_F03_0024.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/data/MI1B2E/MI1B2E.A2004245.0633.003.2007097045412.AN.24.hdf\\012LID = 1321; Local Granule ID = MISR_AM1_GRP_ELLIPSOID_GM_P162_O025032_DA_F03_0024.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/data/MI1B2E/MI1B2E.A2004245.0633.003.2007097045432.DA.24.hdf\\012LID = 1322; Local Granule ID = MISR_AM1_GRP_ELLIPSOID_GM_P162_O025032_CA_F03_0024.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/data/MI1B2E/MI1B2E.A2004245.0633.003.2007097045432.CA.24.hdf\\012LID = 1323; Local Granule ID = MISR_AM1_GRP_ELLIPSOID_GM_P162_O025032_BA_F03_0024.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/data/MI1B2E/MI1B2E.A2004245.0633.003.2007097045412.BA.24.hdf\\012LID = 1324; Local Granule ID = MISR_AM1_GRP_ELLIPSOID_GM_P162_O025032_AA_F03_0024.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/data/MI1B2E/MI1B2E.A2004245.0633.003.2007097045411.AA.24.hdf\\012LID = 1325; Local Granule ID = MISR_AM1_GRP_RCCM_GM_P162_O025032_DF_F04_0024.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/data/MIRCCM/MIRCCM.A2004245.0633.004.2007097051515.DF.24.hdf\\012LID = 1326; Local Granule ID = MISR_AM1_GRP_RCCM_GM_P162_O025032_CF_F04_0024.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/data/MIRCCM/MIRCCM.A2004245.0633.004.2007097050247.CF.24.hdf\\012LID = 1327; Local Granule ID = MISR_AM1_GRP_RCCM_GM_P162_O025032_BF_F04_0024.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/data/MIRCCM/MIRCCM.A2004245.0633.004.2007097051454.BF.24.hdf\\012LID = 1328; Local Granule ID = MISR_AM1_GRP_RCCM_GM_P162_O025032_AF_F04_0024.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/data/MIRCCM/MIRCCM.A2004245.0633.004.2007097050227.AF.24.hdf\\012LID = 1329; Local Granule ID = MISR_AM1_GRP_RCCM_GM_P162_O025032_AN_F04_0024.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/data/MIRCCM/MIRCCM.A2004245.0633.004.2007097050449.AN.24.hdf\\012LID = 1330; Local Granule ID = MISR_AM1_GRP_RCCM_GM_P162_O025032_DA_F04_0024.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/data/MIRCCM/MIRCCM.A2004245.0633.004.2007097051454.DA.24.hdf\\012LID = 1331; Local Granule ID = MISR_AM1_GRP_RCCM_GM_P162_O025032_CA_F04_0024.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/data/MIRCCM/MIRCCM.A2004245.0633.004.2007097050227.CA.24.hdf\\012LID = 1332; Local Granule ID = MISR_AM1_GRP_RCCM_GM_P162_O025032_BA_F04_0024.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/data/MIRCCM/MIRCCM.A2004245.0633.004.2007097051515.BA.24.hdf\\012LID = 1333; Local Granule ID = MISR_AM1_GRP_RCCM_GM_P162_O025032_AA_F04_0024.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/data/MIRCCM/MIRCCM.A2004245.0633.004.2007097050216.AA.24.hdf\\012LID = 1334; Local Granule ID = MISR_AM1_GP_GMP_P162_O025032_F03_0013.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/data/MIB2GEOP/MIB2GEOP.A2004245.0633.002.2007096224043.13.hdf\\012LID = 1340; Local Granule ID = MISR_AM1_TASC_SEP_F01_01.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/data/ancillary/TASC/MISR_AM1_TASC_SEP_F01_01.hdf\\012LID = 1500; Local Granule ID = MISR_AM1_ARP_PRFLTCHAR_F02_0002.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/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 = /vol1/OPS/S4PM-MISR-REPR/data/ancillary/ARP_static/MISR_AM1_ARP_PRFLTCAL_F02_0005.hdf\\012LID = 1502; Local Granule ID = MISR_AM1_ARP_INFLTCAL_T028_F02_0010.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/data/ancillary/ARP_dynamic/MISR_AM1_ARP_INFLTCAL_T028_F02_0010.hdf\\012LID = 1503; Local Granule ID = MISR_AM1_ARP_CONFIG_F03_0003.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/data/ancillary/ARP_static/MISR_AM1_ARP_CONFIG_F03_0003.hdf\\012LID = 951; Local Granule ID = MISR_AM1_TC_STEREO_P162_O025032_F08_0016.hdf\\012 Input Path = /vol1/OPS/S4PM-MISR-REPR/data/MIL2TCST/MIL2TCST.A2004245.0633.002.2007097053809.16.hdf\\012_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\\012"
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