Changeset 3201
- Timestamp:
- Jun 22, 2006, 2:00:23 PM (17 years ago)
- Location:
- production/onslow_2006
- Files:
-
- 3 added
- 4 edited
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- Unmodified
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production/onslow_2006/make_report.py
r3190 r3201 258 258 \input{summary} 259 259 260 \section{References}261 260 \input{references} 262 261 … … 267 266 \section{Time series} 268 267 \label{sec:timeseries} 268 269 \section{Damage modelling inputs} 270 \label{sec:damageinputs} 271 \input{damage_inputs} 269 272 """ 270 273 fid.write(s) -
production/onslow_2006/report/computational_setup.tex
r3181 r3201 86 86 the boundary (the 100m contour line as shown in Figure \ref{fig:onslow_area}) 87 87 and continues to propagate the wave in shallow water and onshore. 88 To illustrate the form of the tsunami wave, we select a number 89 of point locations surrouding the boundary (shown in 90 Figure \ref{fig:boundarypoints}) and show the waves movement in terms 91 of water level and speed. 88 To illustrate the form of the tsunami wave, we show the form 89 of the tsunami wave moving through the point locations 90 shown in \ref{fig:pointline3d}. This time history is 91 shown as a surface in Figure \ref{fig:MOSTsolution}. 92 93 \begin{figure}[hbt] 94 95 \centerline{ \includegraphics[width=100mm, height=75mm] 96 {../report_figures/point_line_3d.png}} 97 98 \caption{Point locations used to show form of tsunami wave.} 99 \label{fig:pointline3d} 100 \end{figure} 101 102 \begin{figure}[hbt] 103 104 \centerline{ \includegraphics[width=100mm, height=75mm] 105 {../report_figures/solution_surfaceMOST.png}} 106 107 \caption{Time history of tsunami wave.} 108 \label{fig:MOSTsolution} 109 \end{figure} 92 110 93 111 94 95 -
production/onslow_2006/report/damage.tex
r3175 r3201 31 31 \ref{fig:gaugeBindiBindiCommunity}) indicating 100\% damage of contents. 32 32 33 Once the maximum inundation is calculated for each building, the resultant 34 damage 35 can be determined as a function of its type and location from the 36 coastline, \cite{ken:damage}. The damage to the residential 37 structures in the Onslow community 33 To develop building damage and casuality estimates, we briefly describe 34 residential collapse probability models and casualty models and their 35 application to inundation modelling. 36 37 38 There is a paucity of data on the tsunami vulnerability of buildings. 39 With reference to the limited data found in the international literature, 40 along with reported observations made of building performance during the 41 recent Indian Ocean tsunami, vulnerability models have been proposed for 42 framed residential construction. The models predict the collapse 43 probability for an exposed population and incorporate the following 44 parameters known to influence building damage \cite{papathoma:vulnerability} 45 46 \begin{itemize} 47 \item Inundation Depth at Building 48 \item Building Row From Coast 49 \item Building Material (residential framed construction) 50 \item Inundation Depth at House Above Floor Level 51 \end{itemize} 52 53 The collapse vulnerability models used are presented in \ref{table:collapse}. 54 In applying the model all structures in the inundation zone were 55 spatially located and the local water depth and building row 56 number from the exposed edge of the suburb were determined for each. 57 58 Casualty models were developed by making reference to the 59 storm surge models used for the Cairns Cyclone Scenario and 60 through consultation with Dr David Cooper of NSW Health, \cite{cooper:2005}. 61 The injury probabilities for exposed populations were selected 62 based on the nocturnal nature of the event, the collapse outcome 63 for the structure, the water depth with respect to 64 sleeping height (1.0 m) and the limited warning noise for people 65 in the first three city blocks (6 house rows) that could potentially 66 awaken them. The three injury categories corresponded with the 67 categories presented in HAZUS-MH \cite{NIBS:2003} for earthquake 68 related injury. The casualty model used is presented in 69 \ref{table:casualty} 70 and the injury categories are presented in \ref{table:injury}. 71 Input data comprised resident population data at CD level derived 72 from the ABS 2001 census. 73 74 The damage to the residential structures in the Onslow community 38 75 is summarised in Table \ref{table:damageoutput}. The percentage 39 76 of repair cost to structural value shown is based on the total structural value -
production/onslow_2006/report/references.tex
r3171 r3201 21 21 URL: http://www.mssanz.org.au/modsim05/papers/nielsen.pdf 22 22 23 \bibitem{ken:damage} Dale, K. (year) 23 \bibitem{papathoma:vulnerability} 24 Papathoma, M. and Dominey-Howes, D. (2003) 25 Tsunami vulnerability assessment and its implications for coastal hazard 26 analysis and disaster management planning, Gulf of Corinth, Greece, 27 Natural Hazards and Earth System Sciences, 3, 733-747. 28 29 \bibitem{cooper:2005} 30 Cooper, D. (2005) Personal Communication at NSW Tsunami Workshop 12th and 31 13th April, Masonic Centre, Goulburn St, Sydney. 32 33 \bibitem{NIBS:2003} National Institute of Building Sciences (2003) 34 HAZUS-MH User Manual, Washington DC, USA. 24 35 25 36 \end{thebibliography}
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