Research applications with Click to edit Master title style NOAA s Climate Data Record Program

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Research applications with Click to edit Master title style NOAA s Climate Data Record Program Click to edit Master subtitle style Jessica Matthews November 29, 2016 1

NOAA s CDR Program Mission: To develop and implement a robust, sustainable, and scientifically defensible approach to producing and preserving climate records from satellite data. https://www.ncdc.noaa.gov/cdr 2

What are CDRs? The National Research Council (NRC) defines a CDR as a time series of measurements of sufficient length, consistency, and continuity to determine climate variability and change. NOAA is applying modern data analysis methods to historical global satellite data to return new economic and scientific value from the records. 3

Why are CDRs important? Provide trustworthy information on how, where, and to what extent the land, oceans, atmosphere and ice sheets are changing. This information will be used by energy, water resources, agriculture, human health, national security, coastal community and other interest groups. 4

Fundamental and thematic CDRs CDRs are grouped by Fundamental CDRs and Thematic (Atmospheric, Oceanic, and Terrestrial) CDRs. Fundamental CDRs are sensor data (e.g. calibrated radiances, brightness temperatures) that have been improved and quality controlled over time, together with the ancillary data used to calibrate them. Thematic CDRs are geophysical variables derived from the FCDRs. 5

CDR examples Fundamental: Brightness temperatures, Reflectances, Mean layer temperatures Atmospheric: Aerosol optical thickness, Cloud properties, Ozone, Precipitation Oceanic: Sea ice concentration, Sea surface temperature Terrestrial: Snow cover extent, LAI, NDVI, FAPAR 6

NOAA CDR Operational Spiral Development Operations 6 Benchmark CDR 5 Full Operational CDR 4 Sustained CDR 3 Initial Operational CDR Research 2 Research CDR 1 - Conceptual CDR 7

Research to Operations Goal - To move from the Research and Development of a CDR to Initial Operational Capability (IOC). R2O IOC FOC IOC - A CDR development state achieved when a CDR (including the data set, source code and documentation) is scientifically defensible and is archived, maintained, and made publicly available by NOAA. Its data may or may not have been independently reproduced. It is not regularly maintained nor is it necessarily extended as new data become available. FOC - A CDR development state when a CDR will be systematically and operationally maintained in a cycle of continuous improvement. Source code and documentation meet high standards and results are reproducible. The record will be routinely extended as new data become available or to reprocess the record if recalibrated data become available. 8

1) Assess CDR Assessment KDP CDR IPT 1) Assess CDR R20 Process Diagram Assemble Update source IPT: PI, PI Assistant, Transfer SME, PM, Ops, Archive, Access Verify source code Source code code package Assess samples of data, documentation, source code Develop transition schedule 2) Prepare PI Updates Source Code (CDRP coding standards, README) PI Creates Documentation (CATBD, Flow Chart, Maturity Matrix) Create PI Preps Website Data for delivery demo Documents Conduct (netcdf Format, Metadata, Submission Agreement) 3) Transfer PI transfers a copy of the Source Code, Documentation, Maturity Matrix and Data to NCDC 4) Verify IPT verifies Source Code, Documentation, and Data Iterative process until code, documentation, and data meet standards 5) Archive NCDC preserves a copy of Source Code, Documentation and Data in the archive 6) Access Product Description Code 2) Prepare ORR Checklist Documents Data Create Data Submission agreement 3) Transfer Enter code into version control Security Review Transfer Documents Iterative until all parts have been verified Transfer Data 4) Verify Verify README Verify Flow Diagram, CATBD, and Verify Data and Metadata 5) Archive Archive Code Package Archive Documentation Archive Product Data Archive Ancillary Data ORR, then provide public access to everything via the CDR access portal 6) Access Code made available Documentation made available Product made available ORR IOC PI 5/30/2012 Operational Readiness Review Operations Branch Archive Branch Access Branch Science Branch IT Branch CDRP 9

Integrated Product Team R2O Transition Not a task the PI does alone, partnership with the IPT IPT consists of: PI and any Assistants R2O Project Manager Internal NCEI Scientist Archive Branch representative Operations Branch representative Access Branch representative Additional support from IT, User Engagement, and other CDRP members NCEI personnel spend 400-600 hours transitioning each CDR to IOC Typical R2O transition takes the team 8-12 months to complete 10

CICS-NC support of CDRs Science Stewardship Scientific programming 11

Tropical monitoring and prediction The Madden Julian Oscillation (MJO), equatorial Rossby waves, and Kelvin waves are dominant sources of synoptic-to-subseasonal variability in the tropics Divergent circulations from their convection can influence tropical cyclones and other weather patterns around the globe Forecasters in the energy industry harness these long time scales and global impacts to anticipate energy demand in the US 12

Tropical monitoring and prediction https://ncics.org/portfolio/monitor/mjo/ Tropical monitoring derived in part from Outgoing Longwave Radiation CDR data 18 hr lag Forecasts from NCEP Climate Forecast System Tropical cyclogenesis tracking Diagnostics used operationally by NOAA CPC and Air Force 14 th Weather Squadron 13

High-Resolution NEXRAD Reanalysis Provides rainfall amounts at 1-km resolution every five min Available from 2000 to present Processing stats: 130 million radar files 500k jobs 3 million hrs CPU-time ~ 1 yr real-time 14

High-Resolution NEXRAD Reanalysis Is rainfall associated with an increase/decrease in fatal accidents? How does this vary... - by region? - by season? - by time of day? Compare frequency of crashes which take place during the rain to the frequency of rain itself In the absence of a correlation, these frequencies should be roughly equal 15

High-Resolution NEXRAD Reanalysis Blue = climatological frequency of rainfall Red = frequency of crashes during rain All regions show a higher percentage of rain-associated crashes than would be expected based on climatology 16

Sea Ice Concentration CDR The Passive Microwave sea ice concentrations are an estimate of the fraction of ocean area covered by sea ice mean STD 17

Sea Ice Concentration CDR Verification and validation (a) CDR-GSFC bias (b) CDR-BT RMSD (c) CDR-NT bias bias RMSD (d) BT-NT RMSD bias RMSD 18

Sea Ice Concentration CDR Spatial and Temporal Variability of Sea Ice Coverage Whole Arctic Central Arctic (light green) Greenland (dark green) Hudson Bay (dark brown) 19

Obs4MIPS The Observations for Model Inter-Comparison Project (obs4mips) is an effort to make observational data available to the climate modeling community in the same format that they use to share climate model outputs. To support CDR data access, CICS-NC created a tool to convert CDR data to obs4mips compliant format and specifications. 20

Obs4MIPS https://ncics.org/data/obs4mips/ Optimal Interpolation Sea Surface Temperature (OISST) HIRS Outgoing Longwave Radiation (OLR) Passive Microwave Sea Ice Area Fraction 21

Other research highlighted here Scientific Stewardship - What Is It and What Does It Mean to Us? Ge Peng Diurnal Cycle of Land Surface Temperatures under All-sky Conditions Anand Inamdar Long-term HIRS-Based Temperature and Humidity Profiles Jessica Matthews An Evaluation of Satellite Quantitative Precipitation Estimates (QPEs) Products Olivier Prat Linking netcdf Data with the Semantic Web - Enhancing Data Discovery Across Domains Jim Biard 22

Summary NOAA s CDRs are robust, sustainable, and scientifically defensible. CICS-NC supports the effort with science, scientific programming, and stewardship expertise. To learn more: https://www.ncdc.noaa.gov/cdr 23