N: 54 S: -54 E: 180 W: -180
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The Global Ecosystem Dynamics Investigation (GEDI) mission aims to characterize ecosystem structure and dynamics to enable radically improved quantification and understanding of the Earth’s carbon cycle and biodiversity. The GEDI instrument produces high resolution laser ranging observations of the 3-dimensional structure of the Earth. GEDI is attached to the International Space Station (ISS) and collects data globally between 51.6° N and 51.6° S latitudes at the highest resolution and densest sampling of any light detection and ranging (lidar) instrument in orbit to date. Each GEDI Version 2 granule encompasses one-fourth of an ISS orbit and includes georeferenced metadata to allow for spatial querying and subsetting.
The GEDI instrument was removed from the ISS and placed into storage on March 17, 2023. No data were acquired during the hibernation period from March 17, 2023, to April 24, 2024. GEDI has since been reinstalled on the ISS and resumed operations as of April 26, 2024.
The purpose of the GEDI Level 2B Canopy Cover and Vertical Profile Metrics product (GEDI02_B) is to extract biophysical metrics from each GEDI waveform. These metrics are based on the directional gap probability profile derived from the L1B waveform. Metrics provided include canopy cover, Plant Area Index (PAI), Plant Area Volume Density (PAVD), and Foliage Height Diversity (FHD). The GEDI02_B product is provided in HDF5 format and has a spatial resolution (average footprint) of 25 meters.
The GEDI02_B data product contains 96 layers for each of the eight-beam ground transects (or laser footprints located on the land surface). Datasets provided include precise latitude, longitude, elevation, height, canopy cover, and vertical profile metrics. Additional information for the layers can be found in the GEDI Level 2B Data Dictionary.
Known Issues
- Data acquisition gaps: GEDI data acquisitions were suspended on December 19, 2019 (2019 Day 353) and resumed on January 8, 2020 (2020 Day 8).
- Incorrect Reference Ground Track (RGT) number in the filename for select GEDI files: GEDI Science Data Products for six orbits on August 7, 2020, and November 12, 2021, had the incorrect RGT number in the filename. There is no impact to the science data, but users should reference this document for the correct RGT numbers.
- Known Issues: Section 8 of the User Guide provides additional information on known issues.
Version Description
Product Summary
Citation
Citation is critically important for dataset documentation and discovery. This dataset is openly shared, without restriction, in accordance with the EOSDIS Data Use and Citation Guidance.
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File Naming Convention
The file name begins with the Product Short Name (GEDI02_B), followed by the Julian Date and Time of Acquisition designated as YYYYDDDHHMMSS (2024333221021), the Orbit Number starting with the letter O (O33779), the Sub-Orbit Granule Number (03), Track Number (T07960), the Positioning and Pointing Determination System type where 00 is predict, 01 rapid, 02 and higher is final (02), the Product Generation Executables Version (004), the Granule Production Version (01), the Version Number (V002), and the Data Format (h5).
Documents
USER'S GUIDE
ALGORITHM THEORETICAL BASIS DOCUMENT (ATBD)
Publications Citing This Dataset
| Title | Year Sort ascending | Author | Topic |
|---|---|---|---|
| Using airborne LiDAR and enhanced-geolocated GEDI metrics to map structural traits over a Mediterranean forest | Cardenas-Martinez, Aaron, Pascual, Adrian, Guisado-Pintado, Emilia, Rodriguez-Galiano, Victor | Plant Phenology, Canopy Characteristics, Vegetation Cover, Lidar, Topography, Vegetation Height, Digital Elevation/Terrain Model (DEM), VIEWING GEOMETRY, Terrain Elevation, Terrestrial Ecosystems, LIDAR WAVEFORM, Biomass | |
| Upper canopy and understory phenology of Brazilian Amazon forests seen | Oliveira, Pedro V C, Zhang, Xiaoyang | Canopy Characteristics, Vegetation Cover, Digital Elevation/Terrain Model (DEM), VIEWING GEOMETRY, Terrain Elevation, Lidar, Topography, Vegetation Height, Precipitation, Precipitation Amount, Precipitation Rate, Snow, Rain | |
| A Decision Rule and Machine Learning-Based Hybrid Approach for Automated | Islam, Md Didarul, Di, Liping, Zhang, Chen, Yang, Ruixin, Qu, John J., Tong, Daniel, Guo, Liying, Lin, Li, Pandey, Aran | Canopy Characteristics, Vegetation Cover, Digital Elevation/Terrain Model (DEM), VIEWING GEOMETRY, Terrain Elevation, Lidar, Topography, Vegetation Height | |
| A new method for mapping vegetation structure parameters in forested areas using GEDI data | Wang, Ziwei, Cai, Hongyan, Yang, Xiaohuan | Canopy Characteristics, Vegetation Cover, Digital Elevation/Terrain Model (DEM), VIEWING GEOMETRY, Terrain Elevation, Lidar, Topography, Vegetation Height | |
| Accuracy assessment of LAI, PAI and FCOVER from Sentinel-2 and GEDI for monitoring forests and their disturbance in Central Germany | Putzenlechner, Birgitta, Bevern, Felix, Koal, Philipp, Grieger, Simon, Kappas, Martin, Koukal, Tatjana, Low, Markus, Filipponi, Federico | Canopy Characteristics, Vegetation Cover, Digital Elevation/Terrain Model (DEM), VIEWING GEOMETRY, Terrain Elevation, Lidar, Topography, Vegetation Height | |
| Assessment of Landscape-Scale Fluxes of Carbon Dioxide and Methane in | Delaria, Erin R., Wolfe, Glenn M., Blanock, Kaitlyn, Hannun, Reem, Thornhill, Kenneth Lee, Newman, Paul A., Lait, Leslie R., Kawa, S. Randy, Alvarez, Jessica, Blum, Spencer, CastanedaMoya, Edward, Holmes, Christopher, Lagomasino, David, Malone, Sparkle, Murphy, Dylan, Overbauer, Steven F., Pruett, Chandler, Serre, Aaron, Starr, Gregory, Szot, Robert, Troxler, Tiffany, Yannick, David, Poulter, Benjamin | Vegetation Index, Normalized Difference Vegetation Index (NDVI), Enhanced Vegetation Index (EVI), Leaf Characteristics, Photosynthetically Active Radiation, Leaf Area Index (LAI), Fraction Of Absorbed Photosynthetically Active Radiation (fapar), Canopy Characteristics, Vegetation Cover, Digital Elevation/Terrain Model (DEM), VIEWING GEOMETRY, Terrain Elevation, Lidar, Topography, Vegetation Height, Terrestrial Ecosystems, LIDAR WAVEFORM, Biomass, Brightness Temperature, Surface Soil Moisture | |
| Investigating the Association of Seasonal Dynamics in GEDI Canopy Cover Profiles and Sentinel-1 Backscatter in Temperate Forests | Liu, Xiao, Forkel, Matthias, Kranz, Johanna | Canopy Characteristics, Vegetation Cover, Digital Elevation/Terrain Model (DEM), VIEWING GEOMETRY, Terrain Elevation, Lidar, Topography, Vegetation Height | |
| Hy-TeC: a hybrid vision transformer model for high-resolution and large-scale mapping of canopy height | Fayad, Ibrahim, Ciais, Philippe, Schwartz, Martin, Wigneron, Jean-Pierre, Baghdadi, Nicolas, de Truchis, Aurelien, d'Aspremont, Alexandre, Frappart, Frederic, Saatchi, Sassan, Sean, Ewan, Pellissier-Tanon, Agnes, Bazzi, Hassan | Plant Phenology, Canopy Characteristics, Vegetation Cover, Lidar, Topography, Vegetation Height, Digital Elevation/Terrain Model (DEM), LIDAR WAVEFORM, VIEWING GEOMETRY, Terrain Elevation | |
| Improving post-fire GEDI canopy height accuracy and canopy height | Chou, Tsung-Chi, Zhu, Xuan, Reef, Ruth | Canopy Characteristics, Vegetation Cover, Digital Elevation/Terrain Model (DEM), VIEWING GEOMETRY, Terrain Elevation, Lidar, Topography, Vegetation Height | |
| Explainable Machine Learning for Geospatial Data Analysis: A Data-Centric Approach | Kamusoko, Courage | Plant Phenology, Canopy Characteristics, Vegetation Cover, Lidar, Topography, Vegetation Height, Digital Elevation/Terrain Model (DEM), VIEWING GEOMETRY, Terrain Elevation, LIDAR WAVEFORM, Evergreen Vegetation, Deciduous Vegetation, Biomass, Shrubland/Scrub, Forests, Grasslands | |
| Ecosystem Resilience Monitoring and Early Warning Using Earth | Bathiany, Sebastian, Bastiaansen, Robbin, Bastos, Ana, Blaschke, Lana, Lever, Jelle, Loriani, Sina, De Keersmaecker, Wanda, Dorigo, Wouter, Milenkovic, Milutin, Senf, Cornelius, Smith, Taylor, Verbesselt, Jan, Boers, Niklas | Canopy Characteristics, Vegetation Cover, Digital Elevation/Terrain Model (DEM), VIEWING GEOMETRY, Terrain Elevation, Lidar, Topography, Vegetation Height | |
| Evaluation of GEDI footprint level biomass models in Southern African Savannas using airborne LiDAR and field measurements | Li, Xiaoxuan, Wessels, Konrad, Armston, John, Duncanson, Laura, Urbazaev, Mikhail, Naidoo, Laven, Mathieu, Renaud, Main, Russell | Plant Phenology, Canopy Characteristics, Vegetation Cover, Lidar, Topography, Vegetation Height, Digital Elevation/Terrain Model (DEM), LIDAR WAVEFORM, VIEWING GEOMETRY, Terrain Elevation, Evergreen Vegetation, Deciduous Vegetation, Biomass, Shrubland/Scrub, Forests, Grasslands | |
| Evaluation of an In-Canopy Wind and Wind Adjustment Factor Model for | Hung, WeiTing, Campbell, Patrick C., Moon, Zachary, Saylor, Rick, Kochendorfer, John, Lee, Temple R., Massman, William | Leaf Characteristics, Photosynthetically Active Radiation, Leaf Area Index (LAI), Fraction Of Absorbed Photosynthetically Active Radiation (fapar), Canopy Characteristics, Evergreen Vegetation, Crown, Deciduous Vegetation, Vegetation Cover, Land Use/Land Cover Classification, Digital Elevation/Terrain Model (DEM), VIEWING GEOMETRY, Terrain Elevation, Lidar, Topography, Vegetation Height | |
| Predicting forest parameters through generalized linear mixed models using GEDI metrics in a temperate forest in Oaxaca, Mexico | Ortiz-Reyes, Alma Delia, Barrera-Ortega, Daisy, Velasco-Bautista, Efrain, Romero-Sanchez, Martin Enrique, Correa-Diaz, Arian | Plant Phenology, Canopy Characteristics, Vegetation Cover, Lidar, Topography, Vegetation Height, Digital Elevation/Terrain Model (DEM), VIEWING GEOMETRY, Terrain Elevation | |
| Old-growth mapping in Patagonia's evergreen forests must integrate GEDI data to overcome NFI data limitations and to effectively support biodiversity conservation | Pascual, Adrian, Grau-Neira, Aaron, Morales-Santana, Eduardo, Cereceda-Espinoza, Franco, Perez-Quezada, Jorge, Cardenas Martinez, Aaron, Fuentes-Castillo, Taryn | Canopy Characteristics, Vegetation Cover, Digital Elevation/Terrain Model (DEM), VIEWING GEOMETRY, Terrain Elevation, Lidar, Topography, Vegetation Height, Terrestrial Ecosystems, Biomass, LIDAR WAVEFORM | |
| Multi-resolution gridded maps of vegetation structure from GEDI | Burns, Patrick, Hakkenberg, Christopher R., Goetz, Scott J. | Canopy Characteristics, Biomass, Vegetation Height, Forest Composition/Vegetation Structure, LIDAR WAVEFORM, Terrain Elevation, Plant Phenology, Vegetation Cover, Lidar, Topography, Digital Elevation/Terrain Model (DEM), Forests, Evergreen Vegetation, Deciduous Vegetation, Shrubland/Scrub, Grasslands, VIEWING GEOMETRY, Terrestrial Ecosystems | |
| Leveraging the next generation of spaceborne Earth observations for fuel monitoring and wildland fire management | Leite, Rodrigo V., Amaral, Cibele, Neigh, Christopher S. R., Cosenza, Diogo N., Klauberg, Carine, Hudak, Andrew T., Aragao, Luiz, Morton, Douglas C., Coffield, Shane, McCabe, Tempest, Silva, Carlos A. | Plant Phenology, Canopy Characteristics, Vegetation Cover, Lidar, Topography, Vegetation Height, Digital Elevation/Terrain Model (DEM), VIEWING GEOMETRY, Terrain Elevation, Terrestrial Ecosystems, Biomass, LIDAR WAVEFORM, Evergreen Vegetation, Deciduous Vegetation, Shrubland/Scrub, Forests, Grasslands | |
| Characterizing the structural complexity of the Earth's forests with | de Conto, Tiago, Armston, John, Dubayah, Ralph | Land Use/Land Cover Classification, Plant Phenology, Canopy Characteristics, Vegetation Cover, Lidar, Topography, Vegetation Height, Digital Elevation/Terrain Model (DEM), VIEWING GEOMETRY, Terrain Elevation, LIDAR WAVEFORM, Evergreen Vegetation, Deciduous Vegetation, Biomass, Shrubland/Scrub, Forests, Grasslands, Terrestrial Ecosystems, Forest Composition/Vegetation Structure | |
| Repeat GEDI footprints measure the effects of tropical forest disturbances | Holcomb, Amelia, Burns, Patrick, Keshav, Srinivasan, Coomes, David A. | Fire Ecology, Biomass Burning, Wildfires, Fire Occurrence, Burned Area, Plant Phenology, Canopy Characteristics, Vegetation Cover, Lidar, Topography, Vegetation Height, Digital Elevation/Terrain Model (DEM), VIEWING GEOMETRY, Terrain Elevation, Forests, Evergreen Vegetation, Deciduous Vegetation, Shrubland/Scrub, Biomass, Grasslands, LIDAR WAVEFORM | |
| Assessing GEDI-NASA system for forest fuels classification using machine learning techniques | Hoffren, Raul, Lamelas, Maria Teresa, de la Riva, Juan, Domingo, Dario, Montealegre, Antonio Luis, Garcia-Martin, Alberto, Revilla, Sergio | Plant Phenology, Canopy Characteristics, Vegetation Cover, Lidar, Topography, Vegetation Height, Digital Elevation/Terrain Model (DEM), LIDAR WAVEFORM, VIEWING GEOMETRY, Terrain Elevation, Forests, Evergreen Vegetation, Deciduous Vegetation, Shrubland/Scrub, Biomass, Grasslands | |
| Influence of vegetation height, plant area index and forest intactness on SMOS L-VOD, for different seasons and latitude ranges | Vittucci, Cristina, Guerriero, Leila, Ferrazzoli, Paolo | Topography, Canopy Characteristics, Digital Elevation/Terrain Model (DEM), Lidar, LIDAR WAVEFORM, Vegetation Cover, VIEWING GEOMETRY, Terrain Elevation, Vegetation Height | |
| Horizontal Geolocation Error Evaluation and Correction on Full-Waveform | Xu, Yifang, Ding, Sheng, Chen, Peimin, Tang, Hailong, Ren, Hongkai, Huang, Huabing | Topography, Canopy Characteristics, Digital Elevation/Terrain Model (DEM), Lidar, LIDAR WAVEFORM, Vegetation Cover, VIEWING GEOMETRY, Terrain Elevation, Vegetation Height | |
| Forest Structure Characterization in Germany: Novel Products and Analysis Based on GEDI, Sentinel-1 and Sentinel-2 Data | Kacic, Patrick, Thonfeld, Frank, Gessner, Ursula, Kuenzer, Claudia | Canopy Characteristics, Vegetation Cover, Digital Elevation/Terrain Model (DEM), VIEWING GEOMETRY, Terrain Elevation, Lidar, Topography, Vegetation Height | |
| Inferring alpha, beta, and gamma plant diversity across biomes with GEDI spaceborne lidar | Hakkenberg, C R, Atkins, J W, Brodie, J F, Burns, P, Cushman, S, Jantz, P, Kaszta, Z, Quinn, C A, Rose, M D, Goetz, S J | Plant Phenology, Canopy Characteristics, Vegetation Cover, Lidar, Topography, Vegetation Height, Digital Elevation/Terrain Model (DEM), VIEWING GEOMETRY, Terrain Elevation | |
| Estimating aboveground biomass density using hybrid statistical inference with GEDI lidar data and Paraguay's national forest inventory | Bullock, Eric L, Healey, Sean P, Yang, Zhiqiang, Acosta, Regino, Villalba, Hermelinda, Insfran, Katherin Patricia, Melo, Joana B, Wilson, Sylvia, Duncanson, Laura, Nsset, Erik, Armston, John, Saarela, Svetlana, Stahl, Goran, Patterson, Paul L, Dubayah, Ralph | Plant Phenology, Canopy Characteristics, Vegetation Cover, Lidar, Topography, Vegetation Height, Digital Elevation/Terrain Model (DEM), VIEWING GEOMETRY, Terrain Elevation, Forests, Evergreen Vegetation, Deciduous Vegetation, Shrubland/Scrub, Biomass, Grasslands, LIDAR WAVEFORM |
Variables
The table below lists the variables contained within a single granule for this dataset. Variables often contain observed or derived geophysical measurements collected from a variety of sources, including remote sensing instruments on satellite and airborne platforms, field campaigns, in situ measurements, and model outputs. The terms variable, parameter, scientific data set, layer, and band have been used across NASA’s Earth science disciplines; however, variable is the designated nomenclature in NASA’s Common Metadata Repository (CMR). Variable metadata attributes such as Name, Description, Units, Data Type, Fill Value, Valid Range, and Scale Factor allow users to efficiently process and analyze the data. The full range of attributes may not be applicable to all variables. Additional information on variable attributes is typically available in the data, user guide, and/or other product documentation.
For questions on a specific variable, please use the Earthdata Forum.
| Name Sort descending | Description | Units | Data Type | Fill Value | Valid Range | Scale Factor | Offset |
|---|---|---|---|---|---|---|---|
| /BEAM0000/land_cover_data/leaf_on_cycle | Flag that indicates the vegetation growing cycle for leaf-on observations. Values are 0 (leaf-off conditions), 1 (cycle 1) or 2 (cycle 2). | N/A | uint8 | 255 | 1 to 2 | N/A | N/A |
| /BEAM0000/land_cover_data/leaf_on_doy | GEDI 1 km EASE 2.0 grid leaf-on start day-of-year derived from the NPP VIIRS Global Land Surface Phenology Product. | N/A | int16 | 32767 | 1 to 365 | N/A | N/A |
| /BEAM0000/land_cover_data/modis_nonvegetated | Percent non-vegetated from MODIS data. Interpolated at latitude_bin0 and longitude_bin0. doi:10.5067/MODIS/MOD44B.006 | percent | float64 | -9999 | N/A | N/A | N/A |
| /BEAM0000/land_cover_data/modis_nonvegetated_sd | Percent non-vegetated standard deviation from MODIS data. Interpolated at latitude_bin0 and longitude_bin0. doi:10.5067/MODIS/MOD44B.006 | percent | float64 | -9999 | N/A | N/A | N/A |
| /BEAM0000/land_cover_data/modis_treecover | Percent tree cover from MODIS data. Interpolated at latitude_bin0 and longitude_bin0. doi:10.5067/MODIS/MOD44B.006 | percent | float64 | -9999 | N/A | N/A | N/A |
| /BEAM0000/land_cover_data/modis_treecover_sd | Percent tree cover standard deviation from MODIS data. Interpolated at latitude_bin0 and longitude_bin0. doi:10.5067/MODIS/MOD44B.006 | percent | float64 | -9999 | N/A | N/A | N/A |
| /BEAM0000/land_cover_data/pft_class | GEDI 1 km EASE 2.0 grid Plant Functional Type (PFT) derived from the MODIS MCD12Q1v006 Product. Values follow the Land Cover Type 5 Classification scheme. | N/A | uint8 | N/A | 0 to 11 | N/A | N/A |
| /BEAM0000/land_cover_data/region_class | GEDI 1 km EASE 2.0 grid world continental regions (0: Water, 1: Europe, 2: North Asia, 5: South Asia, 3: Australasia, 4: Africa, 6: South America, 7: North America). | N/A | uint8 | N/A | 0 to 7 | N/A | N/A |
| /BEAM0000/land_cover_data/urban_focal_window_size | The focal window size used to calculate urban_proportion. Values are 3 (3x3 pixel window size) or 5 (5x5 pixel window size). | N/A | uint8 | N/A | 3 to 5 | N/A | N/A |
| /BEAM0000/land_cover_data/urban_proportion | The percentage proportion of land area within a focal area surrounding each shot that is urban land cover. Urban land cover is derived from the DLR 12 m resolution TanDEM-X Global Urban Footprint Product. | N/A | uint8 | N/A | 0 to 100 | N/A | N/A |
| /BEAM0000/master_frac | Master time, fractional part. master_int+master_frac is equivalent to /BEAMXXXX/geolocation/delta_time and /BEAMXXXX/geophys_corr/delta_time. | seconds | float64 | N/A | N/A | N/A | N/A |
| /BEAM0000/master_int | Master time, integer part. Seconds since master_time_epoch. master_int+master_frac is equivalent to /BEAMXXXX/geolocation/delta_time and /BEAMXXXX/geophys_corr/delta_time. | seconds | uint32 | N/A | N/A | N/A | N/A |
| /BEAM0000/num_detectedmodes | Number of detected modes in rxwaveform | N/A | uint8 | N/A | 0 to 20 | N/A | N/A |
| /BEAM0000/omega | Foliage clumping index | N/A | float32 | N/A | 0 to 1 | N/A | N/A |
| /BEAM0000/pai | Total plant area index | m2/m2 | float32 | -9999 | N/A | N/A | N/A |
| /BEAM0000/pai_z | Vertical PAI profile from canopy height (z) to ground (z=0) with a vertical step size of dZ, where cover(z > z_max) = 0 | m2/m2 | float32 | -9999 | N/A | N/A | N/A |
| /BEAM0000/pavd_z | Vertical Plant Area Volume Density profile with a vertical step size of dZ | m2/m3 | float32 | -9999 | N/A | N/A | N/A |
| /BEAM0000/pgap_theta | Estimated Pgap(theta) for the selected L2A algorithm | N/A | float32 | -9999 | 0 to 1 | N/A | N/A |
| /BEAM0000/pgap_theta_error | Error of the estimated Pgap(theta) for the selected L2A algorithm | N/A | float32 | -9999 | 0 to 1 | N/A | N/A |
| /BEAM0000/pgap_theta_z | Directional gap probability profile (pgap_theta_z = DN / 10000) | N/A | float32 | -9999 | 0 to 10000 | N/A | N/A |
| /BEAM0000/rg | Integral of the ground component in the RX waveform for the selected L2A processing version | counts | float32 | -9999 | N/A | N/A | N/A |
| /BEAM0000/rh100 | Height above ground of the received waveform signal start (rh[101] from L2A) | cm | int16 | N/A | -21300 to 21300 | N/A | N/A |
| /BEAM0000/rhog | Volumetric scattering coefficient of the ground (reflectance x phase function) | counts | float32 | -9999 | N/A | N/A | N/A |
| /BEAM0000/rhog_error | Error term in Rho (ground) | counts | float32 | -9999 | N/A | N/A | N/A |
| /BEAM0000/rhov | Volumetric scattering coefficient of the canopy (reflectance x phase function) | counts | float32 | -9999 | N/A | N/A | N/A |
| /BEAM0000/rhov_error | Error term in Rho (canopy) | counts | float32 | -9999 | N/A | N/A | N/A |
| /BEAM0000/rossg | Mean projection of unit leaf area on a plane perpendicular to the direction of the laser beam at view zenith angle theta | N/A | float32 | -9999 | 0 to 1 | N/A | N/A |
| /BEAM0000/rv | Integral of the vegetation component in the RX waveform for the selected L2A processing version | counts | float32 | -9999 | N/A | N/A | N/A |
| /BEAM0000/rx_processing/algorithmrun_flag_a1 | For each L2A algorithm, the L2B algorithm is run if this flag is set to 1. This flag selects data which have sufficient waveform fidelity for L2B to run. | N/A | uint8 | N/A | 0 to 1 | N/A | N/A |
| /BEAM0000/rx_processing/algorithmrun_flag_a2 | For each L2A algorithm, the L2B algorithm is run if this flag is set to 1. This flag selects data which have sufficient waveform fidelity for L2B to run. | N/A | uint8 | N/A | 0 to 1 | N/A | N/A |
| /BEAM0000/rx_processing/algorithmrun_flag_a3 | For each L2A algorithm, the L2B algorithm is run if this flag is set to 1. This flag selects data which have sufficient waveform fidelity for L2B to run. | N/A | uint8 | N/A | 0 to 1 | N/A | N/A |
| /BEAM0000/rx_processing/algorithmrun_flag_a4 | For each L2A algorithm, the L2B algorithm is run if this flag is set to 1. This flag selects data which have sufficient waveform fidelity for L2B to run. | N/A | uint8 | N/A | 0 to 1 | N/A | N/A |
| /BEAM0000/rx_processing/algorithmrun_flag_a5 | For each L2A algorithm, the L2B algorithm is run if this flag is set to 1. This flag selects data which have sufficient waveform fidelity for L2B to run. | N/A | uint8 | N/A | 0 to 1 | N/A | N/A |
| /BEAM0000/rx_processing/algorithmrun_flag_a6 | For each L2A algorithm, the L2B algorithm is run if this flag is set to 1. This flag selects data which have sufficient waveform fidelity for L2B to run. | N/A | uint8 | N/A | 0 to 1 | N/A | N/A |
| /BEAM0000/rx_processing/pgap_theta_a1 | Estimated Pgap(theta) from ground finding algorithm for each L2A processing version | N/A | float32 | -9999 | 0 to 1 | N/A | N/A |
| /BEAM0000/rx_processing/pgap_theta_a2 | Estimated Pgap(theta) from ground finding algorithm for each L2A processing version | N/A | float32 | -9999 | 0 to 1 | N/A | N/A |
| /BEAM0000/rx_processing/pgap_theta_a3 | Estimated Pgap(theta) from ground finding algorithm for each L2A processing version | N/A | float32 | -9999 | 0 to 1 | N/A | N/A |
| /BEAM0000/rx_processing/pgap_theta_a4 | Estimated Pgap(theta) from ground finding algorithm for each L2A processing version | N/A | float32 | -9999 | 0 to 1 | N/A | N/A |
| /BEAM0000/rx_processing/pgap_theta_a5 | Estimated Pgap(theta) from ground finding algorithm for each L2A processing version | N/A | float32 | -9999 | 0 to 1 | N/A | N/A |
| /BEAM0000/rx_processing/pgap_theta_a6 | Estimated Pgap(theta) from ground finding algorithm for each L2A processing version | N/A | float32 | -9999 | 0 to 1 | N/A | N/A |
| /BEAM0000/rx_processing/pgap_theta_error_a1 | Uncertainty of Pgap(theta) caused by ground finding algorithm for each L2A processing version | N/A | float32 | -9999 | N/A | N/A | N/A |
| /BEAM0000/rx_processing/pgap_theta_error_a2 | Uncertainty of Pgap(theta) caused by ground finding algorithm for each L2A processing version | N/A | float32 | -9999 | N/A | N/A | N/A |
| /BEAM0000/rx_processing/pgap_theta_error_a3 | Uncertainty of Pgap(theta) caused by ground finding algorithm for each L2A processing version | N/A | float32 | -9999 | N/A | N/A | N/A |
| /BEAM0000/rx_processing/pgap_theta_error_a4 | Uncertainty of Pgap(theta) caused by ground finding algorithm for each L2A processing version | N/A | float32 | -9999 | N/A | N/A | N/A |
| /BEAM0000/rx_processing/pgap_theta_error_a5 | Uncertainty of Pgap(theta) caused by ground finding algorithm for each L2A processing version | N/A | float32 | -9999 | N/A | N/A | N/A |
| /BEAM0000/rx_processing/pgap_theta_error_a6 | Uncertainty of Pgap(theta) caused by ground finding algorithm for each L2A processing version | N/A | float32 | -9999 | N/A | N/A | N/A |
| /BEAM0000/rx_processing/rg_a1 | Integral of the ground component in the RX waveform for each L2A processing version | counts | float32 | -9999 | N/A | N/A | N/A |
| /BEAM0000/rx_processing/rg_a2 | Integral of the ground component in the RX waveform for each L2A processing version | counts | float32 | -9999 | N/A | N/A | N/A |
| /BEAM0000/rx_processing/rg_a3 | Integral of the ground component in the RX waveform for each L2A processing version | counts | float32 | -9999 | N/A | N/A | N/A |
| /BEAM0000/rx_processing/rg_a4 | Integral of the ground component in the RX waveform for each L2A processing version | counts | float32 | -9999 | N/A | N/A | N/A |