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SOC shield4. Roadmaps and Linkages

SOCD roadmap diagrams, depicting the progression of present and future research and operations and the integration with other NOAA programs, consist of horizontal time-blocked tasks mapped by satellite launch dates, encompassed within the context of broader efforts denoted by large arrows. The progression of projects and efforts contribute to achieving identified overarching goals and objectives.

4.1 SOCD Roadmaps

roadmap diagramRoadmaps for each strategic priority, technology area, and science teams are located are provided of in Appendices I, II, and III, respectively. Strategic Priority and Technology Area roadmaps span the activities of all the Science Teams within, providing end-to-end slices. Science Team roadmaps detail specific projects and efforts and time periods of accomplishment. The guiding objectives for each strategic priority, technology area, and science team are listed below.

4.1.1 Strategic Priorities

  • Research to Operations: To facilitate the design and implementation of operational satellite remote sensing products and services through an efficient effective delivery system to the user community.
  • Calibration/Validation: Provide geophysical satellite observations with defined uncertainties to the operational and science communities. The long term objective is to provide climate-quality data records.
  • Data Assimilation: To combine multiple satellite and in- situ data sets to meet NOAA requirements for satellite ocean data assimilation.
  • Climate: Obtain and maintain climate quality global satellite data, validated to NOAA's Consolidated Observations Requirements List (CORL) specifications.

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4.1.2 Technology Areas

  • Satellite Ocean Sensors:
    • Utilize visible, IR, and microwave spectral regions to develop new satellite remotely-sensed ocean parameters
    • Define and improve calibration and validation algorithms for data
    • Transition algorithms to operations
  • Ocean Dynamics: With respect to near-real to interannual or longer time scales with focuses on physical oceanography and marine geophysics of satellite ocean remote sensing support:
    • Numerical oceanic/atmospheric prediction and global climate change models
    • Data fusion of scatterometry wind data and altimetry sea surface height data to determine ocean surface current and variability
    • Identification of ocean thermodynamic processes/features and their temporal patterns through the analysis of infrared sea-surface temperature data
  • Marine Ecosystems: With respect to NOAA's objectives for monitoring habitats, managing ecosystems, protecting species, maintaining human health, measuring water quality, and promoting sustainable development:
    • Develop operational satellite ocean remote sensing applications for oceanic, coastal, and estuarine areas to detect and address aspects of marine ecosystems
    • Support the Integrated Ocean Observing System

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4.1.3 Science Teams

  • Sea Surface Temperature:
    • Environmental Data Records (EDRs):
      • Sustain the current heritage SST/Aerosol EDRs from POES AVHRR and GOES Imager sensors
      • Develop improved methodologies for SST/Aerosol from heritage platforms and sensors
      • Actively contribute to shaping the new missions, sensors, and methodologies (IJPS, NPOESS, GOES-R)
      • Prepare for future SST/Aerosol EDRs (NPOESS, GOES-R)
      • Merge the SST EDRs and National Centers for Environmental Prediction (NCEP) data streams, to constrain the atmospheric correction and facilitate skin-to-bulk SST conversion
    • Climate Data Records (CDRs): Develop high-quality global satellite SST climate data records(CDR)
      • Generate SST/Aerosol CDRs from AVHRR and GOES Imager using improved sensor characterization, cloud screening, and SST inversion techniques
      • Evaluate potential of GOES Imager to develop all-time-first SST climatology with diurnal cycle resolved
      • Evaluate POES/GOES climatologies against available ground- based climatologies and measure improvements
    • Calibration / Validation: Develop and implement a SST/Aerosol Quality assurance/calibration/validation system
      • Develop web-based QA/Cal/Val system to monitor SST/Aerosol quality from POES and GOES
      • Use QA/Cal/Val system to identify persistent uncertainties in SST/Aerosol EDRs and work to fix problems and reduce errors
      • Validate operational satellite SST EDRs to CORL specifications
    • Applications: Generate high-quality satellite-only SST products for areas lacking in-situdata.
  • Sea Surface Height:
    • Altimeter Data Sets: Provide altimeter CDRs to CORL specifications
      • Reduce SSH uncertainty
      • Improve timeliness and expand applications
    • Ocean Dynamics: Operational monitoring of dynamic topography and global sea level to CORL specifications
      • Reduce uncertainty in surface currents from altimetry
      • Apply satellite altimetry to research and operational applications with respect to ocean circulation
    • Gravity and Bathymetry: Global, average SSH slopes on a one-nautical mile grid, accurate to one microradian
      • Reduce uncertainty and improve resolution of global ocean gravity and bathymetry products
    • Climate: Operational monitoring of global sea level to CORL specifications
      • Reduce uncertainty to global sea-level rise
      • Apply satellite altimetry to research and operational applications in areas of climate variability and change
  • Ocean Surface Winds:
    • Operational surface wind vectors, validated to CORL specifications
      • Improve marine forecasting through satellite ocean surface wind data assimilation into numerical models
      • Improve marine forecasting through forecaster use of satellite ocean surface wind products
  • Ocean Color:
    • Ocean Color Marine Optical BuoY (MOBY): Provide absolute radiometric standard and maintain a reference for intercomparison of ocean color satellite missions, accurate to CORL specifications; develop ocean color climate-quality data products
      • Operational vicarious calibrations of satellite ocean color sensors to reduce uncertainties in satellite ocean color measurements
    • Ocean Color Marine Optical Characterization Experiment (MOCE): Operational ocean color measurements validated to CORL specifications
      • Develop and validate new and heritage ocean color algorithms for ocean bio-optical properties
    • Ocean Color Validation: Operational ocean color measurements validated to CORL specifications
      • Develop quantitative accuracy estimates to assess data quality
    • Ocean Color Products and Applications: Develop ocean color applications that address NOAA Mission Goal requirements
      • To develop capabilities to provide quantitative information relating to oceanic biological parameters, particularly; phytoplankton biomass, important biogeochemical processes, and the state and magnitude of human activities in oceanic and coastal waters
  • Sea Ice:
    • Sea Ice Product Research and Development: Complete sea ice CORL EDR algorithms
      • Develop operational algorithms and products that provide required measurements of sea ice and other cryospheric parameters from available active and passive microwave, infrared, and visible data
    • Sea Ice Altimetry: Develop sea ice freeboard estimation capability for climate research
      • Provide validated capability to estimate sea ice thickness from microwave altimeter satellites
    • National Ice Center (NIC) Polar Research: Reduce uncertainty in the accuracy of sea ice products and forecasts
      • Reduce sea ice detection and characterization uncertainty
      • Sustain and develop operational sea ice products, models, and forecasts to meet NIC requirements as NOAA's operational ice services activity
  • Sea Surface Roughness:
    • Securing SAR Data Access for Research and Operations: U.S. operational SAR satellite mission as part of NPOESS
      • Secure affordable, long-term, near-real-time operational access to multi-frequency multi-polarization, interferometric SAR data for product generation and image analysis
    • Synthetic Aperture Radar Product Research: Complete CORL EDR algorithms
      • Develop operational algorithms and products providing quantitative measurements of coastal and open ocean parameters
    • SAR Applications Demonstrations and User Outreach and Education: A well-trained operational user community and an educated public making appropriate use of SAR data and products
      • Demonstrate SAR-derived products in an operational environment to operational users
      • Cultivate and train a SAR user community
    • OperationalSAR OceanProducts System Development: Develop operational SAR ocean products software system capability
      • Develop a fully operations-ready SAR ocean products system that can be operated as a part of the NPOESS system