N: 89 S: -89 E: 180 W: -180
TABLE OF CONTENTS
Description
FOR EXPERT USE ONLY. The GRACE-FO Level-1B data provide all necessary inputs to derive monthly time variations in the Earth gravity field. Level-1B data are also used for GRACE orbit and mean gravity field determination. For a detailed description, please see the GRACE-FO Level-1 documentation (https://podaac.jpl.nasa.gov/gravity/gracefo-documentation).
Product Summary
Platforms
Instruments
Projects
GRACE-FO
Spatial Extent
Spatial Resolution
250000 Meters x 250000 Meters
Location
GLOBAL
Coordinate System
CARTESIAN
Granule Spatial Representation
CARTESIAN
Temporal Extent
2018-05-22
Data Partner
Jet Propulsion Laboratory, NASA (NASA/JPL)
,
Physical Oceanography Distributed Active Archive Center, Jet Propulsion Laboratory, NASA (NASA/JPL/PODAAC)
Concept ID
C2036882118-POCLOUD
Data State
ACTIVE
Number of Files/Granules
8913
Processing Level
1B
Published
Updated
Science Keywords
Gravity
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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Citation Copied
NASA Jet Propulsion Laboratory (JPL). (2019). GRACE-FO Level-1B Release version 4.0 from JPL in ASCII [Dataset]. NASA Physical Oceanography Distributed Active Archive Center. https://doi.org/10.5067/GFL1B-ASJ04 Date Accessed: 2026-08-01
NASA Jet Propulsion Laboratory (JPL). (2019). GRACE-FO Level-1B Release version 4.0 from JPL in ASCII [Dataset]. NASA Physical Oceanography Distributed Active Archive Center. https://doi.org/10.5067/GFL1B-ASJ04 Date Accessed: 2026-08-01
NASA Jet Propulsion Laboratory (JPL). “GRACE-FO Level-1B Release Version 4.0 from JPL in ASCII.” NASA Physical Oceanography Distributed Active Archive Center, 2019, https://doi.org/10.5067/GFL1B-ASJ04. Date Accessed: 2026-08-01
TABLE OF CONTENTS
Documents
USER'S GUIDE
PI DOCUMENTATION
DATA CITATION GUIDELINES
GENERAL DOCUMENTATION
Publications Citing This Dataset
Filters
| Title | Year Sort ascending | Author | Topic |
|---|---|---|---|
| 22 years of time-variable gravity field determination from GRACE and GRACE Follow-On: the CNES/GRGS RL05 solution: J.-M. Lemoine et al. | Lemoine, Jean-Michel, Bourgogne, Stephane, Gegout, Pascal, Reinquin, Franck, Marty, Jean-Charles, Mercier, Flavien, Loyer, Sylvain, Bruinsma, Sean, Balmino, Georges | Gravity, Sea Surface Height, Significant Wave Height | |
| Tracking Hurricane-Induced Water Storage Changes Using GRACE and | Li, Haosi, Yi, Shuang, Tang, He | Longwave Radiation, Shortwave Radiation, Soil Heat Budget, Soil Heat Budget, Soil Temperature, Soil Temperature, Soil Infiltration, Soil Infiltration, Soil Moisture/Water Content, Surface Soil Moisture, Root Zone Soil Moisture, Soil Moisture/Water Content, Evaporation, Surface Water, Runoff Rate, Average Flow, Average Flow, Precipitation, Snow/Ice, Snow Depth, Snow Melt, Snow/Ice Temperature, Leaf Area Index (LAI), Leaf Area Index (LAI), Surface Pressure, Heat Flux, Surface Temperature, Humidity, Evapotranspiration, Surface Winds, Rain, Precipitation Rate, Snow, Land Surface Temperature, Snow Water Equivalent, Runoff, Canopy Characteristics, Leaf Characteristics, Vegetation Cover, Albedo, Gravity | |
| Would the 2021 Western Europe Flood Event Be Visible in Satellite | Kracheletz, Magdalena, Liu, Ziyu, Springer, Anne, Kusche, Jurgen, Friederichs, Petra | Gravity, Precipitation, Precipitation Amount, Precipitation Rate, Snow, Rain | |
| Enhancing the Estimation Precision of C20 Through Revised GRACE | Shen, Zhengyuan, Cai, Lin, Wang, Hongmin, Zhou, Zebing | Gravity | |
| Advancements in the GRACE and GRACE-FO Gradiometer Mode | Pandit, Nikeet, Pagiatakis, Spiros | Gravity | |
| A Tool to Assess the Accuracy of Glacial Isostatic Adjustment | Alvarez Rodriguez, Guadalupe, Tregoning, Paul, McGirr, Rebecca | Gravity, Terrestrial Water Storage, Ground Water, Glacier Mass Balance/Ice Sheet Mass Balance | |
| Assessing the Performance of GRACE-FO KBR and LRI in Detecting Mass | Zhu, Zitong, Wang, Changqing, Yan, Yihao, Xiong, Yuhao, Mu, Qinglu, Yan, Haoming, Zhang, Zizhan | Gravity | |
| Daily Regional Gravity Field Estimation Using GRACE Follow-On | Li, Haosi, Yi, Shuang, Han, ShinChan, Tang, He | Surface Pressure, Heat Flux, Longwave Radiation, Shortwave Radiation, Surface Temperature, Humidity, Evapotranspiration, Surface Winds, Rain, Precipitation Rate, Snow, Soil Moisture/Water Content, Soil Temperature, Land Surface Temperature, Snow Water Equivalent, Runoff, Gravity | |
| Real-time high-precision joint orbit determination of GPS and LEO using | Lai, Wen, Huang, Guanwen, Wang, Le, She, Haonan, Xie, Shichao, Xie, Wei, Wang, Qining | Gravity | |
| Quantification of the Flood Discharge Following the 2023 Kakhovka Dam | Yi, Shuang, Li, Haosi, Han, ShinChan, Sneeuw, Nico, Yuan, Chunyu, Song, Chunqiao, Yeo, InYoung, McCullough, Christopher M. | Gravity | |
| Modified Kalman-Bucy filter for attitude and pose quasi-optimal | Kinzie, Ryan, Drakunov, Sergey V., Bevilacqua, Riccardo, Seo, Dongeun | Gravity | |
| Multi-Temporal Scale Global Gravity Field Determination From GRACE | Lee, Daeha, Han, ShinChan, Seo, KiWeon | Gravity, Gravity Anomalies, Ocean Bottom Pressure, Pressure Anomalies | |
| Recovering Differential Forces From the GRACE-D Accelerometer | Harvey, Nate, Bertiger, Willy, McCullough, Christopher M., Miller, Mark, Save, Himanshu, Yuan, DahNing | Gravity | |
| Exploring Thermospheric Disturbance Patterns Through Space-Borne | Tzamali, Myrto, Pagiatakis, Spiros | Gravity | |
| A Global Combination of Geodetic Techniques at the Observation Level: | Haines, B., Bertiger, W., Desai, S., Ellmer, M., Heflin, M., Kuang, D., Lanyi, G., Naudet, C., Peidou, A., Ries, P., Sibois, A., Wu, X. | Gravity | |
| Automated Anomaly and Outlier Detection in GRACE and GRACE Follow-On Post-Fit Residuals Using Machine Learning | Lasser, Martin, Zbinden, Jonas, Meyer, Ulrich, Panos, Brandon, Arnold, Daniel, Jaggi, Adrian | Gravity | |
| Comparing Link Budget Requirements for Future Space-Based | Sambridge, Callum Scott, Valliyakalayil, Jobin Thomas, McKenzie, Kirk | Gravity | |
| GRACE Follow-On accelerometer data recovery by high-precision environment modelling | Huckfeldt, Moritz, Woske, Florian, Rievers, Benny, List, Meike | Gravity | |
| On the Treatment of Static Gravity Field Signal for Time-Variable Gravity Field Recovery | Lasser, Martin, Meyer, Ulrich, Arnold, Daniel, Jaggi, Adrian | Gravity | |
| Subfemtowatt laser phase tracking | Sambridge, Callum S., Roberts, Lyle E., Wade, Andrew R., Valliyakalayil, Jobin T., Rees, Emily Rose, Chabbra, Namisha, Zhang, Jue, Sutton, Andrew J., Shaddock, Daniel A., McKenzie, Kirk | Gravity | |
| Dual quaternion-based dynamics and control for gravity recovery missions | Kinzie, Ryan, Bevilacqua, Riccardo, Seo, Dongeun, Conklin, John W., Wass, Peter J. | Gravity | |
| Interplay of Altitude, Ground Track Coverage, Noise, and Regularization in the Spatial Resolution of GRACE Gravity Field Models | McGirr, R., Tregoning, P., Allgeyer, S., McQueen, H., Purcell, A. P. | Gravity | |
| Regularization of the Gravity Field Inversion Process with High-Dimensional Vector Autoregressive Models | Kvas, Andreas, Mayer-Gurr, Torsten | Gravity | |
| Time Variable Earth Gravity Field Models From the First Spaceborne Laser Ranging Interferometer | Pie, N., Bettadpur, S. V., Tamisiea, M., Krichman, B., Save, H., Poole, S., Nagel, P., Kang, Z., Jacob, G., Ellmer, M., Fahnestock, E., Landerer, F. W., McCullough, C., Yuan, D.N., Wiese, D. N. | Gravity, Heat Flux, Longwave Radiation, Shortwave Radiation, Surface Temperature, Evaporation, Evapotranspiration, Rain, Snow, Canopy Characteristics, Leaf Characteristics, Vegetation Cover, Soil Moisture/Water Content, Soil Temperature, Albedo, Land Surface Temperature, Snow Water Equivalent, Runoff |
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