1st Progress meeting ELDAS The ELDORADO surface radiation system Bart vd Hurk & Dirk Meetschen et al (see ELDAS web-page)

Slides:

Advertisements

Similar presentations

Quantifying sub-grid cloud structure and representing it GCMs

Advertisements

© University of Reading Richard Allan Department of Meteorology, University of Reading Thanks to: Jim Haywood and Malcolm.

3) Empirical estimate of surface longwave radiation Use an empirical estimate of the clear-sky surface downward longwave radiation (SDLc) to estimate the.

EUMETSAT 2006 Helsinki Exploitation of GERB/SEVIRI data for evaluation of the Met Office global forecast model Richard Allan, Tony Slingo Environmental.

GIST 24/10/06 Jeff Settle, ESSC Reconciling Point and Area Data for RADAGAST GIST 24 October 2006.

An Evaluation of the Surface Radiation Budget Over North America for a Suite of Regional Climate Models Student: Marko Markovic Director: Colin Jones Université.

Surface UV radiation monitoring based on GOME and SCIAMACHY Jos van Geffen 1,2, Ronald van de A 1, Michiel van Weele 1, Marc Allaart 1, Henk Eskes 1 1)

Surface Skin/Air Temperature and LW Flux Calculation Y-C. Zhang and W.B. Rossow LandFlux Conference CNES/CESBIO, Toulouse, France May 28 – 31, 2007.

Earth System Data Record (ESDR) for Global Evapotranspiration. Eric Wood Princeton University ©Princeton University.

ECMWF CO 2 Data Assimilation at ECMWF Richard Engelen European Centre for Medium-Range Weather Forecasts Reading, United Kingdom Many thanks to Phil Watts,

Observed Reductions of Surface Solar Radiation at Sites in the United States and Worldwide from 1961 to 1990 Beate Liepert Lamont-Doherty Earth Observatory.

Iterative and constrained algorithms to generate cloud fields with measured properties Victor Venema Clemens Simmer Susanne Crewell Bonn University

The Radiative Budget of an Atmospheric Column in Tropical Western Pacific Zheng Liu Department of Atmospheric Science University of Washington.

Brief Overview of CM-SAF & Possible use of the Data for NCMPs.

Brief Overview of CM-SAF & Possible use of the Data for NCMPs.

Arctic Land Surface Hydrology: Moving Towards a Synthesis Global Datasets.

Climate Science Branch, Science Directorate NASA Langley Research Center Shashi K. Gupta, Paul W. Stackhouse Jr.*, Taiping Zhang, and J. Colleen Mikovitz.

The Radiative Budget of an Atmospheric Column in Tropical Western Pacific Zheng Liu 1 Thomas Ackerman 1,2, Sally McFarlane 2, Jim Mather 2, University.

Single Column Experiments with a Microwave Radiative Transfer Model Henning Wilker, Meteorological Institute of the University of Bonn (MIUB) Gisela Seuffert,

Improving Cloud Simulation in Weather Research and Forecasting (WRF) Through Assimilation of GOES Satellite Observations Andrew White Advisor: Dr. Arastoo.

Surface Atmospheric Radiation Budget (SARB) working group update Seiji Kato 1, Fred Rose 2, David Rutan 2, Alexander Radkevich 2, Tom Caldwell 2, David.

ASSIMILATION OF GOES-DERIVED CLOUD PRODUCTS IN MM5.

MT Workshop October 2005 JUNE 2004 DECEMBER 2004 End of OCTOBER 2005 ? MAY 2002 ? Capabilities of multi-angle polarization cloud measurements from.

NWS Calibration Workshop, LMRFC March, 2009 Slide 1 Analysis of Evaporation Basic Calibration Workshop March 10-13, 2009 LMRFC.

Development of a European Land Data Assimilation System (ELDAS) Combined Research/Demonstration project EU 5th framework.

Evaluation and applications of a new satellite-based surface solar radiation data set for climate analysis Jörg Trentmann1, Richard Müller1, Christine.

Long-term analyses of surface shortwave irradiance, clouds and aerosols over China T. Hayasaka 1, K. Kawamoto 1, and G.Y. Shi 2 1.Research Institute for.

Center for Satellite Applications and Research (STAR) Review 09 – 11 March 2010 GOES Solar Radiation Products in Support of Renewable Energy Istvan Laszlo.

Dataset Development within the Surface Processes Group David I. Berry and Elizabeth C. Kent.

Land Surface Analysis SAF: Contributions to NWP Isabel F. Trigo.

AN ENHANCED SST COMPOSITE FOR WEATHER FORECASTING AND REGIONAL CLIMATE STUDIES Gary Jedlovec 1, Jorge Vazquez 2, and Ed Armstrong 2 1NASA/MSFC Earth Science.

JCSDA Summer Colloquium Erica Dolinar 4 August 2015.

Soil moisture generation at ECMWF Gisela Seuffert and Pedro Viterbo European Centre for Medium Range Weather Forecasts ELDAS Interim Data Co-ordination.

The ASTEX Lagrangian model intercomparison case Stephan de Roode and Johan van der Dussen TU Delft, Netherlands.

Use of radar data in ALADIN Marián Jurašek Slovak Hydrometeorological Institute.

3rd Indo-French Workshop on Megha-Tropiques under ISRO-CNES Programme on Atmosphere, Climate and Oceanography, Ahmedabad, India October 17-20, Convection,

Progress ELDAS “Point” Validation (ELDAS Progress Meeting, December 2003, Madrid) Cor Jacobs, Herbert Ter Maat, Eddy Moors.

© Imperial College LondonPage 1 Cloud Forcing Studies using CERES and GERB(-like) data Joanna Futyan, Jacqui Russell and John Harries GIST 22 RMIB, Brussels,

10/05/041 Satellite Data in the Verification of Model cloud forecasts Christoph Zingerle Tartu, 24. – 26. Jan HiRLAM mini workshop on clouds and.

Radiative Atmospheric Divergence using ARM Mobile Facility, GERB data and AMMA stations –led by Tony Slingo, ESSC, Reading University, UK Links the ARM.

Boundary Layer Clouds.

R. T. Pinker, H. Wang, R. Hollmann, and H. Gadhavi Department of Atmospheric and Oceanic Science, University of Maryland, College Park, Maryland Use of.

GIST 21 st, Boulder The Surface Radiation Budget within the Satellite Application Facility on Climate Monitoring (CM-SAF) Rainer Hollmann.

09-Nov-2004Brussels, 09-Nov CM-SAF Surface Radiation Budget: First Results and Plans R. Hollmann, A. Gratzki, R. Mueller O. Sievers Deutscher Wetterdienst.

BBHRP Assessment Part 2: Cirrus Radiative Flux Study Using Radar/Lidar/AERI Derived Cloud Properties David Tobin, Lori Borg, David Turner, Robert Holz,

ESTIMATION OF SOLAR RADIATIVE IMPACT DUE TO BIOMASS BURNING OVER THE AFRICAN CONTINENT Y. Govaerts (1), G. Myhre (2), J. M. Haywood (3), T. K. Berntsen.

Chapter 3 Atmospheric Radiative Transfer and Climate To date, we have learned 1)The greenhouse effects, through understanding the simplest greenhouse model,

Ocean Surface heat fluxes Lisan Yu and Robert Weller

Representation of Subgrid Cloud-Radiation Interaction and its Impact on Global Climate Simulations Xinzhong Liang (Illinois State Water Survey, UIUC )

Sophia Antipolis, 17 octobre 2003 HELIOSAT-II. What is Heliosat? Raw image Irradiation (energy)

ECMWF IFS Rnet (net radiation) Met station Agoufou, 1.5W,15.3N MJJA 2005 weaker seasonal dynamic of Rnet in the model (MJJA mean values rather close) *

Aerosol Radiative Forcing from combined MODIS and CERES measurements

Estimation of Potential Evapotranspiration from Merged CERES and MODIS Observations Anand Inamdar & A. French Arid Land Agricultural Research Center (ALARC/ARS/USDA)

CMEMS Mediterranean MFC. Update on specific development for CMEMS Med-MFC V2 Analysis and Forecast Product 1.Data Assimilation: Grid point EOFs ( * )

© Imperial College LondonPage 1 Deriving clear-sky fluxes for GERB Jo Futyan Gist 21, CERES-GERB meeting 02/04/04 Boulder, Colorado.

Validation of Satellite-derived Clear-sky Atmospheric Temperature Inversions in the Arctic Yinghui Liu 1, Jeffrey R. Key 2, Axel Schweiger 3, Jennifer.

What can we learn about LSM’s from the ELDAS increments? Bart vd Hurk, Janneke Ettema & Pedro Viterbo.

An Evaluation of Cloud Microphysics and Radiation Calculations at the NSA Matthew D. Shupe a, David D. Turner b, Eli Mlawer c, Timothy Shippert d a CIRES.

Status of soil moisture production at DWD Interim ELDAS Data coordination meeting Martin Lange, Bodo Ritter, Reinhold Schrodin.

The SCM Experiments at ECMWF Gisela Seuffert and Pedro Viterbo European Centre for Medium Range Weather Forecasts ELDAS Progress Meeting 12./

Consistent Earth System Data Records for Climate Research: Focus on Shortwave and Longwave Radiative Fluxes Rachel T. Pinker, Yingtao Ma and Eric Nussbaumer.

NASA Langley Research Center / Atmospheric Sciences CERES Instantaneous Clear-sky and Monthly Averaged Radiance and Flux Product Overview David Young NASA.

A-Train Symposium, April 19-21, 2017, Pasadena, CA

Investigating Cloud Inhomogeneity using CRM simulations.

Xiquan Dong, Baike Xi, Erica Dolinar, and Ryan Stanfield

Radiative biases in Met Office global NWP model

Entrapment An important mechanism for shortwave 3D cloud radiative effects and its inclusion in the SPARTACUS radiative transfer model Robin Hogan, Mark.

Application of Stochastic Techniques to the ARM Cloud-Radiation Parameterization Problem Dana Veron, Jaclyn Secora, Mike Foster, Christopher Weaver, and.

716 Investigating the Role of Aerosols and Clouds on the Radiation Budget in Niamey, Niger Allison Marquardt Collow and Mark Miller Department of Environmental.

Studying the cloud radiative effect using a new, 35yr spanning dataset of cloud properties and radiative fluxes inferred from global satellite observations.

Presentation transcript:

1st Progress meeting ELDAS The ELDORADO surface radiation system Bart vd Hurk & Dirk Meetschen et al (see ELDAS web-page)

1st Progress meeting ELDAS Principle Generating 3-hrly LW & SW surface downward radiative fluxes ELDAS grid resolution Combining METEOSAT data and RT calculations from the ECMWF model Simplified data assimilation technique Brief verification using routine SW stations in The Netherlands

1st Progress meeting ELDAS ELDORADO steps (1) 1.Create initial field of cloud cover & liquid water profile Continuous simulation using LAM version of ECMWF model at 0.5 , started daily from interpolated ECMWF analysis Interpolate cloud fields at 3hrly intervals to ELDAS 0.2  grid 2.Create METEOSAT-derived cloud cover field at ELDAS grid METCLOCK cloud mask product Cloud cover = average mask of 5  3 METEOSAT pixels surrounding target location

1st Progress meeting ELDAS ELDORADO steps (2) 3.Create METEOSAT net TOA SW radiation at ELDAS resolution Sensor irradiance  net TOA flux Extra time/space/month-dependent calibration factor, derived from monthly averaged clear sky TOA SW flux generated by LAM 6UTC9UTC12UTC

1st Progress meeting ELDAS ELDORADO steps (3) 4.Reshuffle model columns for relocation of cloudy/cloud-free atmospheric columns For each target location, select model column with the smallest value of: J = a distance + b  albedo + c  SWnet TOA 5.Adjust total cloud cover to METCLOCK value by scaling cloud cover profile Cumulative cloud cover MetClock obs First guess Scaled scaling factor height

1st Progress meeting ELDAS ELDORADO steps (4) 6.Adjust liquid water content similarly in order to match SWnet TOA Non-linear relation: 2 iterations applied Only applied to cloudy model gridpoints 7.Store and interpolate resulting downward LW and SW surface fluxes as best estimate When either METCLOCK or SW-obs are absent: use first guess Archived METEOSAT/METCLOCK data covers only part of the ELDAS domain

1st Progress meeting ELDAS Total cloud cover

1st Progress meeting ELDAS TOA SWnet

1st Progress meeting ELDAS Surface verification  30 Routine stations in Netherlands Only downward shortwave Daily totals First guess affected by erroneous daily reset to cloudfree conditions at 0 UTC: probably little cloud spin-up in morning hours

1st Progress meeting ELDAS Statistics April/May 2000 this dataset: first guess: 37 W/m2 ELDORADO: 12 W/m2 Bias of ERA40 over SGP ARM observations (April-May 1999): clear sky: 31 W/m2 overcast: 26 W/m2 all cond.: 17 W/m2

1st Progress meeting ELDAS Still to do Further validation –BSRN stations (hardly available via www-service, but Lindenberg-data are ordered) –Validation plan Cleaning the archive –Replace missing time slots by first guess –Fill area outside METEOSAT domain with first guess Interpolation to ELDAS grid