2006 73rd Annual Meeting of the Southeastern Section of the APS
Thursday–Saturday, November 9–11, 2006;
Williamsburg, Virginia
Session LA: SESAPS Banquet
6:30 PM–10:00 PM,
Friday, November 10, 2006
Williamsburg Hospitality House
Room: Empire A/B/C
Abstract ID: BAPS.2006.SES.LA.2
Abstract: LA.00002 : A Virtual National Laboratory for Predicting Hurricane Impacts
7:00 PM–10:00 PM
Preview Abstract
Abstract
Author:
Philip Bogden
(SURA/SCOOP Program Director and CEO, GoMOOS)
The 2005 Atlantic hurricane season was the most active in
recorded history.
Collectively, the 2005 hurricanes caused more than 2,280 deaths
and record
damages of over 100 billion dollars. Of the storms that made
landfall,
Dennis, Emily, Katrina, Rita, and Wilma caused most of the
destruction.
Accurate predictions of water level, wave height, and inundation
can save
lives and reduce recovery costs, provided the information gets to
emergency
responders in a timely manner. The information must be received
well in
advance of a storm making landfall, so that responders can weigh
the costs
of unnecessary evacuation (estimated at over 1 million dollars
per mile of
coastline) against the costs of inadequate preparation.
Tracking large storms is already challenging; predicting the
impacts days
before the storm makes landfall imposes enormous new challenges.
This
requires an entirely different approach than is usually involved in
producing the single best forecast for a specific event. Hazard
planning
requires an estimate of the uncertainty in the forecast.
Calculating such
probabilities requires that computer simulations be run not once,
but many
hundreds or thousands of times---once for each plausible
outcome---creating
huge computational demands. Add the requirement for real-time
observations
needed to increase predictive capability and the complexity of the
information flow grows to include a wide variety of ocean-based
sensor
platforms. From ocean-bound sensors to supercomputers to the
decision-maker's desk, the predictions must be turned around in a
matter of
hours if they are to affect decision-making.
Scientists from universities across the Southeast are creating a
cyberinfrastructure---a virtual and distributed laboratory --
that combines
the knowledge, data-integration capacity, and computational power
necessary
for real-time environmental prediction and hazard planning. This
vision
supports a national, multi-agency initiative called the
Integrated Ocean
Observing System. For more information on this remarkable
partnership, visit http://scoop.sura.org/.
To cite this abstract, use the following reference: http://meetings.aps.org/link/BAPS.2006.SES.LA.2