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Improved Observations for Disaster Warnings

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( Aside from reduction in the loss of life and property damage. ... Aspects include spatial and temporal, disciplinary, land, water, and air ... – PowerPoint PPT presentation

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Title: Improved Observations for Disaster Warnings


1
Improved Observations for Disaster
Warnings     Moderators Gene Whitney (OSTP) and
Margaret Davidson (NOAA)   Rapporteurs Ralph
Cantral and Jenny Thompson (NOAA) and Andrew J.
Bruzewicz (USACE) Objective To develop an
integrated EOS to improve disaster warning with
its constituent components.
2
  • What makes observations for improved disaster
    warnings a near term opportunity? What makes
    disaster or hazards observations a near term
    opportunity?
  • Technology is now ripe
  • Lots of data
  • Indian Ocean Tsunami
  • Political will in the US
  • Disasters can be worked even in the face of
    political differences
  • What will be the benefits of an integrated
    observation system for disaster warnings? (Aside
    from reduction in the loss of life and property
    damage.)
  • Fewer false alarms and evacuations
  • Mitigation of cascading disasters
  • Ability to pass common data over common
    communication channels

3
  • What should be the scope of an integrated
    observation system to improve disaster warnings?
  • Open access with certification by governmental
    bodies
  • Need to compartmentalize responsibilities
    without creating orphan requirements
  • Interagency support
  • Integration is not centralization. Aspects
    include spatial and temporal, disciplinary, land,
    water, and air
  • Disaster data collection and observation exists
    in a larger context including planning, analysis,
    and product delivery
  • What are the major scientific and technological
    challenges (and barriers)?
  • Building connections between systems
  • Effective and verified predictive models
  • Understanding of the underlying physical
    processes
  • More robust instruments with high resolution or
    density
  • Design and updating of GIS products
  • Inclusion of social scientists
  • Awareness of uncertainty issues, accuracy, and
    precision of the data.

4
  • N Year Integration Framework
  • Supplement critical databases using existing
    technology (especially topography and shallow
    bathymetry) (2 year)
  • Improve resolution with new instruments (6 and
    10 years)
  • Capture current benefits of through a
    multihazard approach
  • Deformation measurement and other benefits from
    SAR. Existing instruments (2 year) and new
    capabilities (L band)
  • Develop a prototype integrated system.
    Inventory, assess and address know deficiencies
    in system components (sensors, data, models, DSS
    tools), identify deficiencies, improve critical
    components, develop model and DSS metadata. (2-6
    years)
  • Sea bed seismology (6-10 years)
  • Next generation thermal sensors (6-10 years)
    including evaluation of existing systems (2
    years)
  • Data archive and retrieval systems
  • Soil moisture forecasting
  • Evaluate use of UVs and UAVs

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