Changeset 7473
- Timestamp:
- Sep 3, 2009, 2:04:19 PM (14 years ago)
- Location:
- anuga_work/publications/boxing_day_validation_2008
- Files:
-
- 3 edited
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anuga_work/publications/boxing_day_validation_2008/data.tex
r7470 r7473 85 85 whole of the Andaman Sea based on the 86 86 Smith \& Sandwell 2-minute 87 dataset (\url{http://topex.ucsd.edu/WWW_html/srtm30_plus.html})as well as 88 Thai Navy charts no. 45 and no. 362; and 87 dataset (\url{http://topex.ucsd.edu/WWW_html/srtm30_plus.html}), 88 coastline constrained using SRTM data (\url{http://srtm.csi.cgiar.org}) 89 as well as Navy charts no.\ 45 and no.\ 362; and 89 90 \item a one second grid created from the digitised Thai Navy 90 91 bathymetry chart, no. 358, which covers Patong Bay and the … … 164 165 165 166 \subsubsection{Topography Data} 166 The 1 second onshore topography for Patong Beach provided by the CCOP was 167 merged with the nearshore 1 second bathymetry described in Section 168 \ref{sec:bathymetry data} to provide a seamless terrain model for the 169 bay and community as shown in Figure~\ref{fig:patong_bathymetry}. 167 A 1 second grid comprising the onshore topography and the nearshore bathymetry 168 for Patong Beach was created from the Navy charts (described in Section \ref{sec:bathymetry data}) and from 169 1 m and 10 m elevation contours provided in a GIS data set which was also provided by the CCOP 170 (see Section \ref{sec:inundation data} for details). 171 The 1 second terrain model for the and community as shown in Figure~\ref{fig:patong_bathymetry}. 172 173 Two 1/3 second grids were created: One for the saddle point covering Merlin and Tri Trang Beaches 174 and one for Patong city and its immediate shore area. 175 These grids were based on 176 the same data used for the 1 second data grid. 177 The patong city grid was further modified based on 178 satellite imagery to include 179 the river and lakes towards the south of Patong city which were not part of the GIS dataset. 180 The depth of the river and lake system was set uniformly to -1 m. 170 181 171 182 … … 184 195 Human-made buildings and structures can significantly affect tsunami 185 196 inundation. The footprint and number of floors of the 186 buildings in Patong Bay were extracted from a GIS data set which was also provided by the CCOP (see Section \ref{sec:inundation data} for details).197 buildings in Patong Bay were extracted from the GIS data set from CCOP. 187 198 The heights of these 188 199 buildings were estimated assuming that each floor has a height of 3 m and they 189 200 were added to the topographic dataset. 201 190 202 191 203 \subsubsection{Inundation Survey} -
anuga_work/publications/boxing_day_validation_2008/results.tex
r7470 r7473 51 51 hand corner of the figure. The cross marks show the location of 52 52 the pivot line (the region between the uplift and subsided region 53 where the uplift is zero) derived from remote sensing 54 (FIXME(Jane): How was that possible?). All the 53 where the uplift is zero) derived from remote sensing of where there 54 were no changes in the amount of reef or land exposure before and after 55 the earthquake (\cite{meltzner06}). All the 55 56 observational data are from the dataset collated 56 57 by~\cite{chlieh07}.} … … 69 70 sequence of grids was used. The grid resolution of the nested grids 70 71 went from 27 arc seconds in the coarsest grid, down to nine arc seconds 71 in the second grid, three arc seconds in the third grid and finally one arc 72 second in the finest grid near Patong. The computational domain is 72 in the second grid and three arc seconds in the third grid. The computational domain is 73 73 shown in Figure~\ref{fig:computational_domain}. 74 74 … … 118 118 for the \textsc{anuga} model. The interface between the \textsc{ursga} 119 119 and \textsc{anuga} models was chosen to roughly follow the 100~m depth 120 contour along the west coast of Phuket Island. The computational 120 contour along the west coast of Phuket Island. Data from the 121 3 second grid was decimated to match the resolution chosen in ANUGA. 122 The computational 121 123 domain is shown in Figure~\ref{fig:computational_domain}. 122 124 … … 133 135 region in Patong Bay. The coarse resolution was chosen to be 134 136 commensurate with the model output from the \textsc{ursga} model (FIXME (Ole): Richard says that the ursga model used all four grids which would mean that the 135 resolution at the ANUGA boundary was 1 second or about 30 m.137 resolution at the ANUGA boundary was 1 second or about 30 m. 136 138 This is not consistent with my memory and certainly not with us choosing a 137 resolution of 440 m. John, do you remember what the spacing was between the139 resolution of 440 m. John, do you remember what the spacing was between the 138 140 URSGA points? Did we weed them out or did we take them as they were?) 139 141 -
anuga_work/publications/boxing_day_validation_2008/tsunami07.bib
r7469 r7473 1206 1206 institution = {ARROW Discovery Service [http://search.arrow.edu.au/apps/ArrowUI/OAIHandler] (Australia)}, 1207 1207 } 1208 1209 1210 @article{meltzner06, 1211 title = {Uplift and subsidence associated with the great Aceh-Andaman earthquake of 2004}, 1212 year={2006}, 1213 author = {Meltzner, A. J. and K. Sieh and M. Abrams and D. C. Agnew and K. W. Hudnut and J.-P. Avouac and D. H. Natawidjaja}, 1214 journal = {J. Geophys. Res.}, 1215 volume={111}, 1216 doi={10.1029/2005JB003891} 1217 }
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