Service-Oriented Environments for Dynamically Interacting with Mesoscale Weather

  • Authors:
  • Kelvin K. Droegemeier;Dennis Gannon;Daniel Reed;Beth Plale;Jay Alameda;Tom Baltzer;Keith Brewster;Richard Clark;Ben Domenico;Sara Graves;Everette Joseph;Donald Murray;Rahul Ramachandran;Mohan Ramamurthy;Lavanya Ramakrishnan;John A. Rushing;Daniel Weber;Robert Wilhelmson;Anne Wilson;Ming Xue;Sepideh Yalda

  • Affiliations:
  • University of Oklahoma;Indiana University;University of North Carolina;Indiana University;US National Center for Supercomputing Applications;University Corporation for Atmospheric Research;University of Oklahoma;Millersville University;University Corporation for Atmospheric Research;University of Alabama in Huntsville;Howard University;University Corporation for Atmospheric Research;University of Alabama in Huntsville;University Corporation for Atmospheric Research;University of North Carolina;University of Alabama in Huntsville;University of Oklahoma;University Corporation for Atmospheric Research;University Corporation for Atmospheric Research;University of Oklahoma;Millersville University

  • Venue:
  • Computing in Science and Engineering
  • Year:
  • 2005

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Abstract

Within a decade after John von Neumann and colleagues conducted the first experimental weather forecast on the ENIAC computer in the late 1940s, numerical models of the atmosphere became the foundation of modern-day weather forecasting and one of the driving application areas in computer science. This article describes research that is enabling a major shift toward dynamically adaptive responses to rapidly changing environmental conditions.