An Ensemble Land Surface Modeling and Assimilation Testbed for HEPEX

Similar documents
GRID RAINFALL DISAGGREGATION TOWARD A PATCH-BASED ENSEMBLE KALMAN FILTER FOR SOIL MOISTURE DATA ASSIMILATION

Implementation of the NCEP operational GLDAS for the CFS land initialization

Global Urban-Scale Land-Atmosphere Modeling with the Land Information System

Land Data Assimilation at NCEP NLDAS Project Overview, ECMWF HEPEX 2004

Interaction of North American Land Data Assimilation System and National Soil Moisture Network: Soil Products and Beyond

NASA/NOAA s Global Land Data Assimilation System (GLDAS): Recent Results and Future Plans

GLOBAL LAND DATA ASSIMILATION SYSTEM (GLDAS) PRODUCTS FROM NASA HYDROLOGY DATA AND INFORMATION SERVICES CENTER (HDISC) INTRODUCTION

Estimation via Data Assimilation Using. Mississippi State University GeoResources Institute

Soil Moisture Prediction and Assimilation

Land Analysis in the NOAA CFS Reanalysis. Michael Ek, Ken Mitchell, Jesse Meng Helin Wei, Rongqian Yang, and George Gayno

Acknowledging: Paul R. Houser (CREW & GMU)

2009 Progress Report To The National Aeronautics and Space Administration NASA Energy and Water Cycle Study (NEWS) Program

Multivariate assimilation of satellite-derived remote sensing datasets in the North American Land Data Assimilation System (NLDAS)

VIC Hydrology Model Training Workshop Part II: Building a model

Enhancing Weather Forecasts via Assimilating SMAP Soil Moisture and NRT GVF

Implementation of Land Information System in the NCEP Operational Climate Forecast System CFSv2. Jesse Meng, Michael Ek, Rongqian Yang, Helin Wei

The Canadian Land Data Assimilation System (CaLDAS)

ASimultaneousRadiometricand Gravimetric Framework

The Community Noah LSM with Multi-physics Options

Georgy V. Mostovoy*¹, Valentine Anantharaj¹, Paul R. Houser², and Christa D. Peters-Lidard³

ECMWF. ECMWF Land Surface Analysis: Current status and developments. P. de Rosnay M. Drusch, K. Scipal, D. Vasiljevic G. Balsamo, J.

Microwave Remote Sensing of Soil Moisture. Y.S. Rao CSRE, IIT, Bombay

Comparison of NASA AIRS and MODIS Land Surface Temperature and Infrared Emissivity Measurements from the EOS AQUA platform

ECMWF. ECMWF Land Surface modelling and land surface analysis. P. de Rosnay G. Balsamo S. Boussetta, J. Munoz Sabater D.

First International Surface Working Group (ISWG)

Advances in land data assimilation at NASA/GSFC

Improvement of vegetation parameters for the estimation of evapotranspiration in the Midwest United States

Cross-Validation of AMSR-E Soil Moisture Retrievals and the Surface Soil Moisture Simulations from NASA s Global Land Data Assimilation System (GLDAS)

The University of Texas at Austin, Jackson School of Geosciences, Austin, Texas 2. The National Center for Atmospheric Research, Boulder, Colorado 3

Some NOAA Products that Address PSTG Satellite Observing Requirements. Jeff Key NOAA/NESDIS Madison, Wisconsin USA

The National Operational Hydrologic Remote Sensing Center Operational Snow Analysis

1.11 CROSS-VALIDATION OF SOIL MOISTURE DATA FROM AMSR-E USING FIELD OBSERVATIONS AND NASA S LAND DATA ASSIMILATION SYSTEM SIMULATIONS

D. Lohmann, Pablo Grunman, and Kenneth Mitchell (2004), Land data assimilation at NOAA/NCEP/EMC, in Proceedings of the 2 nd international CAHMDA

Precipitation: Evapotranspiration: S i o l il M o t s ure: Groundwater: Streamflow: Vegetation:

Development of the Canadian Precipitation Analysis (CaPA) and the Canadian Land Data Assimilation System (CaLDAS)

Evaluation of GPM Precipitation Estimates for Land Data Assimilation Applications

Land Surface Processes and Their Impact in Weather Forecasting

Development of a land data assimilation system at NILU

NASA NNG06GC42G A Global, 1-km Vegetation Modeling System for NEWS February 1, January 31, Final Report

How complex should a snow model be?

Amita Mehta and Ana Prados

First steps toward a comparison of modelled thermal comfort during a heatwave in Melbourne, Australia

We are IntechOpen, the first native scientific publisher of Open Access books. International authors and editors. Our authors are among the TOP 1%

Comparison of NASA AIRS and MODIS Land Surface Temperature and Infrared Emissivity Measurements from the EOS AQUA platform

SMAP and SMOS Integrated Soil Moisture Validation. T. J. Jackson USDA ARS

The role of soil moisture in influencing climate and terrestrial ecosystem processes

Assimilating remotely sensed snow observations into a macroscale hydrology model

Assimilation of passive and active microwave soil moisture retrievals

ASSESSMENT OF NORTHERN HEMISPHERE SWE DATASETS IN THE ESA SNOWPEX INITIATIVE

Drought Monitoring with Hydrological Modelling

A SATELLITE LAND DATA ASSIMILATION SYTEM COUPLED WITH A MESOSCALE MODEL: TOWARDS IMPROVING NUMERICAL WEATHER PREDICTION

Assimilation of satellite derived soil moisture for weather forecasting

Land data assimilation in the NASA GEOS-5 system: Status and challenges

Incorporation of SMOS Soil Moisture Data on Gridded Flash Flood Guidance for Arkansas Red River Basin

InSAR measurements of volcanic deformation at Etna forward modelling of atmospheric errors for interferogram correction

Recent Data Assimilation Activities at Environment Canada

NOAA Soil Moisture Operational Product System (SMOPS): Version 2

Introduction to SMAP. ARSET Applied Remote Sensing Training. Jul. 20,

Arctic System Reanalysis *

Michael B. Ek 1, Youlong Xia 1,2, Jesse Meng 1,2, and Jiarui Dong 1,2

Snow Data Assimilation

Developing a High-Resolution Texas Water and Climate Prediction Model

Assimilation of land surface satellite data for Numerical Weather Prediction at ECMWF

Improving Streamflow Prediction in Snow- fed River Basins via Satellite Snow Assimilation

Land Data Assimilation for operational weather forecasting

Permanent Ice and Snow

Land surface precipitation and hydrology in MERRA-2

Land-Hydrology Modeling at NCEP

A Global Water Budget Assessment

Soil frost from microwave data. Kimmo Rautiainen, Jouni Pulliainen, Juha Lemmetyinen, Jaakko Ikonen, Mika Aurela

School on Modelling Tools and Capacity Building in Climate and Public Health April Remote Sensing

Retrieving snow mass from GRACE terrestrial water storage change with a land surface model

Evaluation of an emissivity module to improve the simulation of L-band brightness temperature over desert regions with CMEM

Using VIIRS Land Surface Temperature to Evaluate NCEP North American Mesoscale Model (NAM) Forecast

REMOTE SENSING TECHNOLOGY AND APPLICATION

THE GLOBAL LAND DATA ASSIMILATION SYSTEM

Tracing hydrologic model simulation error as a function of satellite rainfall estimation bias components and land use and land cover conditions

Application of Pattern Recognition and Adaptive DSP Methods for Spatio-temporal Analysis of Satellite Based Hydrological Datasets

Peter H. Hildebrand* NASA Goddard Space Flight Center, Greenbelt, MD

WATER AND ENERGY BALANCE ESTIMATION IN PUERTO RICO USING SATELLITE REMOTE SENSING

Predicting ectotherm disease vector spread. - Benefits from multi-disciplinary approaches and directions forward

The Canadian Precipitation Analysis (CaPA) and the Canadian Land Data Assimilation System (CaLDAS)

Aquarius/SAC-D Soil Moisture Product using V3.0 Observations

Remote Sensing I: Basics

SSS retrieval from space Comparison study using Aquarius and SMOS data

A two-season impact study of the Navy s WindSat surface wind retrievals in the NCEP global data assimilation system

Land Data Assimilation and the (Coordinated) National Soil Moisture Network

Implementation of Coupled Skin Temperature. Atmospheric Data Assimilation System. Jon D. Radakovich, Michael G. Bosilovich,

North American Land Data Assimilation System: A Framework for Merging Model and Satellite Data for Improved Drought Monitoring

Climate Hazards Group, Department of Geography, University of California, Santa Barbara, CA, USA. 2

School on Modelling Tools and Capacity Building in Climate and Public Health April Rainfall Estimation

11 days (00, 12 UTC) 132 hours (06, 18 UTC) One unperturbed control forecast and 26 perturbed ensemble members. --

Toward a South America Land Data Assimilation System: Aspects of land surface model spin-up using the Simplified Simple Biosphere

The North American Land Data Assimilation System (NLDAS)

OSE/OSSEs at NOAA. Eric Bayler NOAA/NESDIS/STAR

Modeling the Arctic Climate System

CWRF Downscaling to Improve U.S. Seasonal- Interannual Climate Predic>on

THE SIMULATION STUDY ON LAND SURFACE ENERGY BUDGET OVER CHINA AREA BASED ON LIS-NOAH LAND SURFACE MODEL

Impacts of High-Resolution Land Surface Initialization on Regional Sensible Weather Forecasts from the WRF Model

Parameterization of the surface emissivity at microwaves to submillimeter waves

Transcription:

GSFC s Land Data Assimilation Systems: An Ensemble Land Surface Modeling and Assimilation Testbed for HEPEX Christa Peters-Lidard Lidard,, Paul Houser, Matthew Rodell, Brian Cosgrove NASA Goddard Space Flight Center Hydrological Sciences Branch Greenbelt, Maryland USA Acknowledgements: Many collaborators (NOAA/NCEP, NOAA/OHD, Princeton, Rutgers, UW, COLA, ) Support from: GCIP/GAPP, NASA Terrestrial Hydrology Program NASA ESTO/Computational Technologies Program http://ldas ldas.gsfc.nasa.gov http://lis lis.gsfc.nasa.gov March 8-10, 2004, Page 1

GSFC s Land Data Assimilation Systems North American LDAS 1/8 Degree Resolution Mitchell et al., GR, 2004 Global LDAS 1/4 Degree Resolution Rodell et al., BAMS, 2004 March 8-10, 2004, Page 2 Land Information System Variable (2 deg-1km) Resolution Peters-Lidard et al., AMS, 2004

LDAS/LIS Modeling Approach Inputs Topography, Soils (Static) MODIS/AVHRR Land Cover, Leaf Area Index (Monthly) Modeled + Observed Meteorology (Hourly-3 hourly) Physics Land Surface Models (LSM) (Timestep=1 min-1 hour) Noah, CLM, VIC, Mosaic, SSiB, SiB2, Catchment Outputs Soil Moisture & Temperature Profiles Surface Energy Fluxes (H,LE) Surface Water Fluxes (Runoff, Baseflow) Observed Surface States (e.g., Snow, Soil Moisture) March 8-10, 2004, Page 3 Data Assimilation Modules (EnKF, EKF) Physical Space Analysis System (PSAS) 3-D VAR Rule-based Surface States: Snowpack LAI (some)

LIS High Performance Computing Simulation: one day, 15 minute time step a. Performance improvement at ¼ o resolution b. Scaling curves at 5km resolution Time (seconds) Memory 11.5 hr Wallclock time CPU time (MB) (minutes) (minutes) LDAS 3169 116.7 115.8 LIS 313 22 21.8 reduction factor 10.12 5.3 5.3 solid lines depict LIS results on SGI O3K at NASA/ARC hatched lines depict LIS goal of P/2 scaling March 8-10, 2004, Page 4 Number of Processors, P < 2 hr

Ensembles in LIS Physics Noah, CLM, VIC, Mosaic, etc. (could perturb initial conditions) Forcing Models: NOAA/GDAS, NASA/GEOS, ECMWF Precipitation: NRL/Turk, GSFC/Huffman, Persiann, CMAP, CMORPH Radiation: GOES SRB (US), AGRMET-based (could be analysis/forecast members) Parameters Land Cover: AVHRR climatology or MODIS real-time Subgrid tiles or nested fine grid at 1km (could use PDF s of soil/land cover parameters) March 8-10, 2004, Page 5

(GEOS) (GDAS) (ECMWF) (Huffman) (Persiann) (CMAP) (NEXRAD) (Higgins) March 8-10, 2004, Page 6

Example: LIS Physics/Forcing Ensemble 300.00 295.00 290.00 285.00 280.00 275.00 Global Evergreen Needleleaf Forest Evergreen Broadleaf Forest Deciduous Needleleaf Forest Deciduous Broadleaf Forest Mixed Cover Woodland Wooded Grassland Closed Shrubland Open Shrubland Grassland Cropland Bare Ground Urban Landcover Type March 8-10, 2004, Page 7 CLM/GDAS CLM/GEOS NOAH/GEOS NOAH/GDAS VIC/GEOS VIC/GDAS Average Land Surface Temperature (K)

Impact of Observed vs. Modeled Forcing August 22, 2002 22UTC Surface Temperature Differences (GDAS+CMAP+AGRMET GDAS) March 8-10, 2004, Page 8

Impact of Observed LAI Observed LAI Impact on Surface Temperature Observed LAI Impact on Soil Moisture Observed LAI Impact on Transpiration March 8-10, 2004, Page 9 Improvement in Surface Temperature

LDAS/LIS Data Assimilation Soil Moisture Skin Temperature Snow Cover and SWE Total Water Storage March 8-10, 2004, Page 10

Assimilation: Soil Moisture θs EOS-Aqua Advanced Microwave Scanning Radiometer (AMSR-E) HYDROSpheric States Mission ESA Soil Moisture and Ocean Salinity (SMOS) Mission 1cm 5cm 10cm 30cm 100cm q 1,2 q 2,3 q 3, 4 q 4,5 q 5,wt m-km March 8-10, 2004, Page 11 θp RADARSA ERS SAR ERS ENVISAT ERS ALOS T ASAR PALSAR (planned) Incidence Angle 20-50 23 15-45 10-51 Wavelength (cm) 5.7 5.7 5.7 23 SAR band C C C L Polarization HH VV HH, VV, VH, HV Resolution (m) 10-100 30 10-100 10-100 SSMIS NPOESS HH,VV,HH,HV,VV &VH

KF Soil Moisture Profile Estimation Direct Insertion Every Hour No Update Day 1 0 cm 1 4 10 cm True Kalman Filter Every Hour No Update 1 cm Hour 1 10 cm 0 cm 4 cm True Source: eff Walker 0 Day 3 0 Hour 4 Depth (cm) Depth (cm) Day 7-100 HEPEX Workshop, -600 ECMWF 0 March 8-10, 2004, Page Matric 12 Head (cm) Hour 12-100 Christa -600 D. Peters-Lidard, Ph.D. 0 GSFC Hydrological Matric Sciences Head Branch (cm)

A B Assimilation: Snow Original MODIS visible snow cover (%) A is modified using MODIS confidence index (total visibility; %) B and a snow impossible mask C in order to produce an enhanced snow field D. D E F C March 8-10, 2004, Page 13 This is used to update the modeled snow on a daily basis. Output snow depth (mm H2O) is shown for 30 November 2000, after running the Mosaic LSM without E and with F the snow correction for 30 days. Map G shows the difference (mm H2O) between the two results. G

Assimilation: Snow Enhanced MODIS Snow Cover (%) 21Z 9 February 2003 IMS Snow Cover SNOTEL and Co-op Network SWE (mm) Control Run Mosaic SWE (mm) March 8-10, 2004, Page 14 Assimilated Mosaic SWE (mm) Mosaic SWE Difference (mm)

Assimilation: Skin Temperature DAO-PSAS Assimilation of ISCCP (IR based) Surface Skin Temperature into a global 2 degree uncoupled land model. Assimilation with Bias Correction Observation No Assimilation Assimilation Surface temperature has very little memory or inertia, so without a continuous correction, it drifts toward the control case very quickly. March 8-10, 2004, Page 15

Assimilation: GRACE Water Storage surface water & snow GRACEderived terrestrial water storage change soil moisture groundwater Terrestrial Water Storage in Illinois, 1983-96 Runoff Snow Soil Moisture Water Storage (mm) 0 March 8-10, 2004, Page 16 Month RS SN SM IZ Christa D. Peters-Lidard, GW Ph.D. Interflow Zone Ground Water

LIS as a testbed for HEPEX Ensembles Initial conditions Physics Forcing Parameters NEED: Long-term retrospective run to establish PDFs NEED: Hydrologic models NEED: Ensemble Calibration Assimilation Soil Moisture, Snow, Temperature, Total Water Storage Constrains the ensemble IC s NEED: How ensembles above could be used in EnKF NEED: Error characterization March 8-10, 2004, Page 17 LIS CODE and DATA at http://lis lis.gsfc.nasa.gov GSFC govhydrological Sciences Branch