FY2010 - Oak Ridge National Laboratory
FY2010 - Oak Ridge National Laboratory
FY2010 - Oak Ridge National Laboratory
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Director’s R&D Fund—<br />
Understanding Climate Change Impact: Energy, Carbon, and Water<br />
water-related data relevant to the project. These data include Community Climate System Model Version<br />
3 (CCSM3) post-processed model data and some preliminary CCSM4 data, MODIS remote sensing data,<br />
International Boundary Water Commission data, and representative U.S. Geological Service data. We<br />
developed a proof-of-concept tagging system for the metadata intended to facilitate the cross-disciplinary<br />
identification of variables and annotations contained in datasets of interest to hydrology and related<br />
science. This proof-of-concept tool provides the foundation to develop additional enhancements as<br />
outlined in the proposal. The Earth System Grid (ESG), a DOE-funded effort, is the main venue for the<br />
dissemination of CCSM and related climate model results. We are working to link our efforts with<br />
ongoing efforts at ESG. Activity in this area includes (1) several meetings with the ESG ORNL PI and<br />
team; (2) a plan to publish our analytical results through ESG; and (3) acquired deeper understanding of<br />
the ESG infrastructure, which, in turn, is guiding the focus of our tool development effort. During the<br />
summer we hired two undergraduates to assist in our work, one from East Tennessee State University and<br />
one from the University of Tennessee. One student helped with our data gathering effort, and the other<br />
did the coding for the tagging tool. In preparation for building the proof-of-concept system, we acquired a<br />
9 terabyte data storage device that will be brought online early in FY 2011.<br />
Information Shared<br />
Lenhardt, W. Christopher, Marcia Branstetter, Anthony King, Line Pouchard, Kao Shih-Chieh, Dali<br />
Wang, Andrew Runciman, and Jeremy Buckles. 2010. “Developing Climate Change Science<br />
Informatics at <strong>Oak</strong> <strong>Ridge</strong> <strong>National</strong> <strong>Laboratory</strong>: An Essential Capability to Bridge Domain Science<br />
and High Performance Computing.” Poster, ESIP Federation Summer 2010 Meeting, Knoxville, TN.<br />
05893<br />
Economic Losses Associated with Climate Extremes under<br />
Conditions of Climatic and Socioeconomic Change<br />
Benjamin L. Preston<br />
Project Description<br />
The economic costs of extreme weather events have increased markedly in recent decades, largely as a<br />
result of socioeconomic processes and trends. Yet, quantitative understanding of the interactions between<br />
climatic and socioeconomic change on economic damages from climatic extremes is lacking. The parallel<br />
application of top-down and bottom-up analytical methods will be applied within a geographic<br />
information system (GIS) environment to address this knowledge gap. The Hazards U.S. Multi-Hazard<br />
Model (HAZUS-MH) will be parameterized for a cross section of U.S. case study communities as part of<br />
a bottom-up comparison of economic damages in response to simulated extreme events. Model sensitivity<br />
will be tested using a range of hazard event return periods and observed and synthetic development<br />
patterns. Reanalysis products from the <strong>National</strong> Centers for Environmental Prediction (NCEP) as well<br />
global and regional climate modeling will be used to quantify changes in the spatiotemporal distribution<br />
of climatic extremes given anthropogenic climate change. To generalize simulation results across a range<br />
of spatial scales, empirical models of hazard losses will be developed based upon U.S. county, state, and<br />
national data for historical losses as well as data for extreme event frequencies and socioeconomic<br />
conditions. These top-down models will then be perturbed with climate model projections of extremes<br />
and socioeconomic scenarios to estimate future economic losses.<br />
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