The ESA Earth Observation Payload Data Ground Segment ...

More documents

Recommendations

Info

G-POD History and Status 2002-2004: Development of Grid On-Demand as a technology (GRID)demonstrator to support e-science for Earth Observation Sample data on-line, few demonstrator applications Used mainly for internal research and to generate “nice images” 2005-2006: “Transfer to Operations” and “Industrialization” of thesystem MERIS full archive + gradually all Envisat low-bit-rate products Supporting few internal research applications test-bed of first external collaboration (with JRC) for the generation ofthe global MERIS MGVI aggregated level-3 product System maintenance and evolutions by industry 2006: G-POD included as a ground-segment facility to supportroutine services Routine generation of high-level products (e.g. level-3) Test-bed G-POD as a support infrastructure to ESA scientists: Call forCAT-1 proposals 2007-2009: G-POD for the long-term G-POD CAT-1 opportunity routinely sustained [http://eopi.esa.int/G-POD] G-POD to expand into ESA archiving centres G-POD for GMES (Global Monitoring of Environment and Security)
Examples of G-POD in Production MERIS Level-3 Products NRT generation Joint ESA collaboration with ACRI(France), JRC/Ispra (European Commission)and Brockmann Consult (BEAM) 11 products published on-line daily/monthlyhttp://earth.esa.int/meris/level3RIS data Daily ASAR GM mapping of Antarctica Internal Development in operations since 2005 Daily Generation of 400-m resolution mosaics andpublish to ESA Web Map Server Aeromeris Fast extraction over user-area of pixels andstatistics from the complete MERIS level-2product archive Output to Excel, Google Earth, XML River and Lake Processor ESA/Montfort University (UK) collaboration Accurate River and Lake heights measurements inNRT from satellite altimetry (RA2) products published onlinehttp://earth.esa.int/riverandlake/ Meris True-Color Mosaics 9km resolution global Monthly mosaics of MERISdata
Page 1 and 2: The ESA Earth ObservationPayload Da
Page 3 and 4: Rationale for PDGS harmonization (1
Page 5 and 6: Ground Segment DecompositionSpecifi
Page 8 and 9: MultiMission Facility Infrastructur
Page 10 and 11: MMFI Main Functionality‣ Data Ing
Page 12 and 13: MMFI ArchitectureCentral Infrastruc
Page 14 and 15: MMFI Elements All MMFI Elements are
Page 16 and 17: MM PDGS benefits Lower cost & risks
Page 18 and 19: EO payload data processing needs EO
Page 20 and 21: Distributed Processing Each MMFI ce
Page 22 and 23: DPCS The Distributed Processing Cap
Page 24 and 25: DPCS Solution Search Workload Manag
Page 26 and 27: DPC Structured Processing BusMMFI A
Page 28 and 29: DPC Conclusion Grid technology Rati
Page 30 and 31: G-POD ObjectivesProvide a “user-s
Page 34 and 35: Improved Data AccessMM PDGS Future

The ESA Earth Observation Payload Data Ground Segment ...

Create successful ePaper yourself

Delete template?

Save as template?