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Description

NASA Global Land Data Assimilation System Version 2 (GLDAS-2) has three components: GLDAS-2.0, GLDAS-2.1, and GLDAS-2.2. GLDAS-2.0 is forced entirely with the Princeton meteorological forcing input data and provides a temporally consistent series from 1948 through 2014. GLDAS-2.1 is forced with a combination of model and observation data from 2000 to present. GLDAS-2.2 product suites use data assimilation (DA), whereas the GLDAS-2.0 and GLDAS-2.1 products are "open-loop" (i.e., no data assimilation). The choice of forcing data, as well as DA observation source, variable, and scheme, vary for different GLDAS-2.2 products.

GLDAS-2.1 data products are now available in two production streams: one stream is forced with combined forcing data including GPCP version 1.3 (the main production stream), and the other stream is processed without this forcing data (the early production stream). Since the GPCP Version 1.3 data have a 3-4 month latency, the GLDAS-2.1 data products are first created without it, and are designated as Early Products (EPs), with about 1.5 month latency. Once the GPCP Version 1.3 data become available, the GLDAS-2.1 data products are processed in the main production stream and are removed from the Early Products archive.

This data product is for GLDAS-2.1 VIC monthly 1.0 degree data from the main production stream. It was generated through temporal averaging of GLDAS-2.1 3-hourly data simulated with the VIC 4.1.2 Land Surface Model in Land Information System (LIS) Version 7. The data product contains 34 land surface fields from January 2000 to present. The GLDAS-2.1 data are archived and distributed in NetCDF format. The GLDAS-2.1 products supersede their corresponding GLDAS-1 products.

The GLDAS-2.1 simulation started on January 1, 2000 using the conditions from the GLDAS-2.0 simulation. This simulation was forced with National Oceanic and Atmospheric Administration (NOAA)/Global Data Assimilation System (GDAS) atmospheric analysis fields (Derber et al., 1991), the disaggregated Global Precipitation Climatology Project (GPCP) V1.3 Daily Analysis precipitation fields (Adler et al., 2003; Huffman et al., 2001), and the Air Force Weather Agency's AGRicultural METeorological modeling system (AGRMET) radiation fields. The simulation used with GDAS and GPCP only from 2000 to February 2001, followed by addition of AGRMET for March 1, 2001 onwards.

In October 2020, all 3-hourly and monthly GLDAS-2 data were post-processed with the MOD44W MODIS land mask. Previously, some grid boxes over inland water were considered as over land and, thus, had non-missing values. The post-processing corrected this issue and masked out all model output data over inland water; the post-processing did not affect the meteorological forcing variables. More information can be found in the GLDAS-2 README. The MOD44W MODIS land mask is available on the GLDAS Project site.

If you had downloaded the GLDAS data prior to November 2020, please download the data again to receive the post-processed data.

Version Description

NASA Global Land Data Assimilation System Version 2 (GLDAS-2) has three components: GLDAS-2.0, GLDAS-2.1, and GLDAS-2.2. GLDAS-2.0 is forced entirely with the Princeton meteorological forcing input data and provides a temporally consistent series from 1948 through 2014. GLDAS-2.1 is forced with a combination of model and observation data from 2000 to present. GLDAS-2.2 product suites use data assimilation (DA), whereas the GLDAS-2.0 and GLDAS-2.1 products are "open-loop" (i.e., no data assimilation). The choice of forcing data, as well as DA observation source, variable, and scheme, vary for different GLDAS-2.2 products. The GLDAS-2.1 products supersede their corresponding GLDAS-1 products.

Product Summary

Platforms
VIC-LSM
Instruments
NOT APPLICABLE
Spatial Extent

N: 90 S: -60 E: 180 W: -180

Spatial Resolution
1 Decimal Degrees x 1 Decimal Degrees
Location
GLOBAL LAND
Coordinate System
CARTESIAN
Granule Spatial Representation
CARTESIAN
Temporal Extent
2000-01-01 to Present
Data Partner
Goddard Earth Sciences Data and Information Services Center (formerly Goddard DAAC), Terrestrial Information Systems Laboratory, Earth Sciences Division, Science and Exploration Directorate, Goddard Space Flight Center, NASA (NASA/GSFC/SED/ESD/TISL/GESDI
Concept ID
C1690022344-GES_DISC
Data State
ACTIVE
Number of Files/Granules
313
Processing Level
4
Published
Updated
Science Keywords
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

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.

Copy Citation

Beaudoing, H. (2020). GLDAS VIC Land Surface Model L4 monthly 1.0 x 1.0 degree V2.1 [Data set]. NASA Goddard Earth Sciences Data and Information Services Center. https://doi.org/10.5067/VWTH7S6218SG Date Accessed: 2026-04-30

Documents

Publications Citing This Dataset

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Title Year Author Topic
The Effects of Planting Structure on Groundwater Depletion and Jia, Chengru, Sun, Shikun, Liang, Yongshan, Shen, Ruihua, Zhao, Jinfeng, Yin, Yali, Wang, Yubao, Zhao, Xining 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
Intensive irrigation buffers groundwater declines in key European breadbasket Carlson, Grace, Massari, Christian, Rotiroti, Marco, Bonomi, Tullia, Preziosi, Elisabetta, Wilder, Andrew, Whitaker, Destinee, Girotto, Manuela 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
Investigating the role of ENSO in groundwater temporal variability across Abu Dhabi Emirate, United Arab Emirates using machine learning algorithms Alghafli, Khaled, Shi, Xiaogang, Sloan, William, Ali, Awad M. 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
Groundwater depletion intensified by irrigation and afforestation in the Guo, Shuitao, Yao, Yingying, Ji, Qiang, Jin, Huijun, Wang, Taihua, Lancia, Michele, Meng, Xianhong, Zheng, Chunmiao, Yang, Dawen 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, Terrestrial Water Storage, Ground Water, Glacier Mass Balance/Ice Sheet Mass Balance
Plausibility Criteria for GRACE-Derived Groundwater Storage Changes From Arifin, A., Shamsudduha, M., Ramdhan, A. M., Rateb, A., Scanlon, B. R., Setiawan, T., Iman, M. I., Husna, A., Taylor, R. G. 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, Terrestrial Water Storage, Ground Water, Glacier Mass Balance/Ice Sheet Mass Balance
Is groundwater running out in the Western Cape, South Africa? Evaluating Nenweli, Ritshidze, Watson, Andrew, Brookfield, Andrea, Munch, Zahn, Chow, Reynold 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
Understanding the shift in drivers of terrestrial water storage decline Zhang, Xiao, Wu, Xiong, Mu, Wenping, Zhao, Rong, Ye, Baoying, Bai, Zhongke Total Surface Precipitation Rate, 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
Water budget-based evapotranspiration product captures natural and Goswami, Shubham, Rajendra Ternikar, Chirag, Kandala, Rajsekhar, Pillai, Netra S, Kumar Yadav, Vivek, Abhishek, Joseph, Jisha, Ghosh, Subimal, Dutt Vishwakarma, Bramha 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, Vegetation Index, Vegetation Index, Vegetation Cover, Plant Characteristics, Leaf Characteristics, Canopy Characteristics, Albedo, Albedo, Reflectance, Topographic Effects, Digital Elevation/Terrain Model (DEM), Terrain Elevation, Rivers/Streams
Modified flood potential index (MFPI) for flood monitoring in terrestrial water storage depletion basin using GRACE estimates Jiang, Wei, Ji, Xuan, Li, Yungang, Luo, Xian, Yang, Luyi, Ming, Wenting, Liu, Chang, Yan, Siyi, Yang, Chuanjian, Sun, Cezong 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, Precipitation, Precipitation Amount, Gravity Anomalies, Gravity
Deriving the Terrestrial Water Storage Anomaly From GRACE Spherical Zhang, Qingquan, Pan, Yun, Zhang, Chong, Gong, Huili 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, Ground Water
Contribution of climate change and vegetation restoration to interannual variability of evapotranspiration in the agro-pastoral ecotone in northern China Li, Xuliang, Xu, Xuefeng, Tian, Wei, Tian, Jie, He, Chansheng 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
Continuing Severe Water Shortage in the WaterReceiving Area of the SouthToNorth Water Diversion Eastern Route Project From 2002 to 2020 Xu, Yuyue, Gun, Zhao, Zhao, Jianwei, Chen, Jianli, Liu, Qing, Cheng, Xing, Sutanudjaja, Edwin H., Wang, Jida, Liu, Hehua, Zhan, Wenfeng 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
Quantifying Multi-Source Uncertainties in GRACE-Based Estimates of Li, Quanzhou, Pan, Yun, Zhang, Chong, Gong, Huili 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
Hydrological Droughts of 20172018 Explained by the Bayesian Reconstruction of GRACE (FO) Fields Mo, Shaoxing, Zhong, Yulong, Forootan, Ehsan, Shi, Xiaoqing, Feng, Wei, Yin, Xin, Wu, Jichun Surface Pressure, Heat Flux, Longwave Radiation, Shortwave Radiation, Air Temperature, Specific Humidity, Evapotranspiration, Wind Speed, Rain, Snow, Soil Moisture/Water Content, Soil Temperature, Land Surface Temperature, Snow Cover, Snow Depth, Snow Water Equivalent, Runoff, Surface Temperature, Humidity, Surface Winds, Precipitation Rate, Soil Heat Budget, Soil Heat Budget, Soil Temperature, Soil Infiltration, Soil Infiltration, Surface Soil Moisture, Root Zone Soil Moisture, Soil Moisture/Water Content, Evaporation, Surface Water, Runoff Rate, Average Flow, Average Flow, Precipitation, Snow/Ice, Snow Melt, Snow/Ice Temperature, Leaf Area Index (LAI), Leaf Area Index (LAI), Canopy Characteristics, Leaf Characteristics, Vegetation Cover, Albedo
Global evaluation of the dry gets drier, and wet gets wetter paradigm from a terrestrial water storage change perspective Xiong, Jinghua, Guo, Shenglian, Chen, Jie, Yin, Jiabo 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
Influence of intensive agriculture and geological heterogeneity on the recharge of an arid aquifer system (SaqRam, Arabian Peninsula) inferred from GRACE ... Seraphin, Pierre, Goncalves, Julio, Hamelin, Bruno, Stieglitz, Thomas, Deschamps, Pierre 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
Calibration of a hydrologic model in data-scarce Alaska using satellite and other gridded products Schneider, Katie E., Hogue, Terri S. 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
Solid water melt dominates the increase of total groundwater storage in the Tibetan Plateau Zou, Yiguang, Kuang, Xingxing, Feng, Yuqing, Jiao, Jiu Jimmy, Liu, Junguo, Wang, Can, Fan, Linfeng, Wang, Qingjing, Chen, Jianxin, Ji, Fang, Yao, Yingying, Zheng, Chunmiao 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, Ground Water, Precipitation, Precipitation Amount, Soil Heat Budget, Soil Heat Budget, Soil Temperature, Soil Infiltration, Soil Infiltration, Surface Soil Moisture, Root Zone Soil Moisture, Soil Moisture/Water Content, Evaporation, Surface Water, Total Runoff, Average Flow, Average Flow, Snow/Ice, Snow Depth, Snow Melt, Snow/Ice Temperature, Leaf Area Index (LAI), Leaf Area Index (LAI)
Integrating InSAR and deep-learning for modeling and predicting subsidence over the adjacent area of Lake Urmia, Iran Radman, Ali, Akhoondzadeh, Mehdi, Hosseiny, Benyamin 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, Total Surface Precipitation Rate, Reflectance
GRACE-based estimates of groundwater variations over North America from 2002 to 2017 Wang, Hansheng, Xiang, Longwei, Steffen, Holger, Wu, Patrick, Jiang, Liming, Shen, Qiang, Li, Zhen, Hayashi, Masaki 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
Calibration-Free Complementary Relationship Estimates Terrestrial Ma, Ning, Szilagyi, Jozsef, Zhang, Yongqiang 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
Understanding uncertainty of model-reanalysis soil moisture within Greater Horn of Africa (19822014) Agutu, N.O., Ndehedehe, C.E., Awange, J.L., Kirimi, F., Mwaniki, M. 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, Air Temperature, Specific Humidity, Wind Speed, Snow Cover, Snow Depth, Soil Heat Budget, Soil Heat Budget, Soil Temperature, Soil Infiltration, Soil Infiltration, Surface Soil Moisture, Root Zone Soil Moisture, Soil Moisture/Water Content, Evaporation, Surface Water, Runoff Rate, Average Flow, Average Flow, Precipitation, Snow/Ice, Snow Melt, Snow/Ice Temperature, Leaf Area Index (LAI), Leaf Area Index (LAI)
Groundwater Storage Changes Derived from GRACE and GLDAS on Smaller River BasinsA Case Study in Poland Rzepecka, Zofia, Birylo, Monika 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
The 2018 Long Rainy Season in Kenya: Hydrological Changes and Correlated Rateb, Ashraf, Hermas, ElSayed 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
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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 Description Units Data Type Fill Value Valid Range Scale Factor Offset
ACond_tavg ACond_tavg m s-1 float32 -9999 N/A 1 0
Albedo_inst Albedo_inst 1 float32 -9999 N/A 1 0
AvgSurfT_inst AvgSurfT_inst K float32 -9999 N/A 1 0
CanopInt_inst CanopInt_inst kg m-2 float32 -9999 N/A 1 0
ECanop_tavg ECanop_tavg W m-2 float32 -9999 N/A 1 0
ESoil_tavg ESoil_tavg W m-2 float32 -9999 N/A 1 0
Evap_tavg Evap_tavg kg m-2 s-1 float32 -9999 N/A 1 0
lat lat degrees_north float32 -9999 N/A 1 0
lon lon degrees_east float32 -9999 N/A 1 0
LWdown_f_tavg LWdown_f_tavg W m-2 float32 -9999 N/A 1 0
Lwnet_tavg Lwnet_tavg W m-2 float32 -9999 N/A 1 0
Psurf_f_inst Psurf_f_inst Pa float32 -9999 N/A 1 0
Qair_f_inst Qair_f_inst kg kg-1 float32 -9999 N/A 1 0
Qg_tavg Qg_tavg W m-2 float32 -9999 N/A 1 0
Qh_tavg Qh_tavg W m-2 float32 -9999 N/A 1 0
Qle_tavg Qle_tavg W m-2 float32 -9999 N/A 1 0
Qsb_acc Qsb_acc kg m-2 float32 -9999 N/A 1 0
Qsm_acc Qsm_acc kg m-2 float32 -9999 N/A 1 0
Qs_acc Qs_acc kg m-2 float32 -9999 N/A 1 0
Rainf_f_tavg Rainf_f_tavg kg m-2 s-1 float32 -9999 N/A 1 0
Rainf_tavg Rainf_tavg kg m-2 s-1 float32 -9999 N/A 1 0
RootMoist_inst RootMoist_inst kg m-2 float32 -9999 N/A 1 0
SnowDepth_inst SnowDepth_inst m float32 -9999 N/A 1 0
Snowf_tavg Snowf_tavg kg m-2 s-1 float32 -9999 N/A 1 0
SoilMoi0_30cm_inst SoilMoi0_30cm_inst kg m-2 float32 -9999 N/A 1 0
SoilMoi_depth2_inst SoilMoi_depth2_inst kg m-2 float32 -9999 N/A 1 0
SoilMoi_depth3_inst SoilMoi_depth3_inst kg m-2 float32 -9999 N/A 1 0
SoilTMP0_30cm_inst SoilTMP0_30cm_inst K float32 -9999 N/A 1 0
SoilTMP_depth2_inst SoilTMP_depth2_inst K float32 -9999 N/A 1 0
SoilTMP_depth3_inst SoilTMP_depth3_inst K float32 -9999 N/A 1 0
SWdown_f_tavg SWdown_f_tavg W m-2 float32 -9999 N/A 1 0
SWE_inst SWE_inst kg m-2 float32 -9999 N/A 1 0
Swnet_tavg Swnet_tavg W m-2 float32 -9999 N/A 1 0
Tair_f_inst Tair_f_inst K float32 -9999 N/A 1 0
time time days since 2000-01-01 00:00:00 float64 N/A N/A N/A N/A
time_bnds time_bnds N/A float64 N/A N/A N/A N/A
TVeg_tavg TVeg_tavg W m-2 float32 -9999 N/A 1 0
Wind_f_inst Wind_f_inst m s-1 float32 -9999 N/A 1 0
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