PACIFIC CATASTROPHE RIS ASSESSMENT AND FINAN INITIATIVE

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Public Disclosure Authorized PACIFIC CATASTROPHE RIS ASSESSMENT AND FINAN INITIATIVE Public Disclosure Authorized ' ArTIIVIG -LESTE SEPTEMBER 2011 Public Disclosure Authorized Public Disclosure Authorized COUNTRY RISK PROFILE: TIMOR-LESTE Timor-Leste is expected to incur, on average, 5.9 million USD per year in losses due to earthquakes and tropical cyclones. In the next 50 years, Timor-Leste has a 50% chance of experiencing a loss exceeding 88 million USD and casualties larger than 300 people, and a 10% chance of experiencing a loss exceeding 530 million USD and casualties larger than 2,100 people. BETTER RISK INFORMATION FOR SMARTER INVESTMENTS

COUNTRY RISK PROFILE: TIMOR-LESTE POPULATION, BUILDINGS, INFRASTRUCTURE AND CROPS EXPOSED TO NATURAL PERILS An extensive study has been conducted to assemble a comprehensive inventory of population and properties at o 1 30 60 risk. Properties include residential, commercial, public and industrial buildings; infrastructure assets such as major ports, airports, power plants, bridges, and roads; and major crops, such as coconut, palm oil, taro, vanilla and many others. Timor-Leste General Information: TABLE 1: Summary of Exposure in Timor-Leste (2010) Total Population: 1,067,000 GDP Per Capita (USD): 660 Total GDP (million USD): 701.0 Asset Counts: Residential Buildings: 375,227 Public Buildings: 5,606 Figure 1 Building locations. 124-10F 1 Z420F Commercial, Industrial, and Other Buildings: 17,852 1 F 126 127 F All Buildings: 398,685 T 2 Dii Kilometer Hectares of Major Crops: 66,883 0 15 30 60 Kilometer Cost of Replacing Assets (million USD): Kilometers Buildings: 17,881 Infrastructure: 2,161 Crops: 103 Total: 20,145 Government Revenue and Expenditure: Total Government Revenue 124'1nF 124-20T (Million USD): 1,238.8 (% GDP): 176.7% Total Government Expenditure (Million USD): 613.8 250E 126'0E 127' E Bonlding Repiocement Cost Density m illoo USD kma2) 0-501 0505-075 5-1052 (% GDP): 87.6% 5,- 124110F1, l4'2u'e 6, 1Data assembled from various references including WB, ADB, IMF and The Figure 2: Building replacement cost density by district. 1200 15 2 Secretariat of the Pacific Community (SPCQ. IThe projected 2010 population was trended from the 2006 census using 15 2'E17 estimated growth rates provided by SPC. Timor-Leste % Dili 3020E Table 1 summarizes population and the inventory of buildings,k infrastructure assets, and major crops (or "exposure") at risk as well as key economic values for Timor-Leste. It is estimated that the replacement value of all the assets in Timor-Leste is 20.1 billion USD, of which about 89% represents buildings and 11 % represents infrastructure. 12514'1 26 E 124 2 E Figures 1 and 2 illustrate the building exposure location and 1:4i2n 10F replacement cost distribution, respectively. The footprints of Ocs about 96,500 of the approximately 400,000 buildings shown in Figure 1 were digitized from high-resolution satellite imagery. 1 c= k Figure 3 dlisplays the land cover/land use map that includes the ooo,tcoi - Aiine location of major crops. The data utilized for these exhibits Lc. was assembled, organized and, when unavailable, produced Figure 3: Land cover/land use map. in this study.

COUNTRY RISK PROFILE: TIMOR-LESTE TROPICAL CYCLONE AND EARTHQUAKE HAZARDS IN TIMOR-LESTE The Pacific islands region is prone to natural hazards. Timor-Leste is located south of the equator at the northern extremity of an area known for the frequent occurrence of tropical cyclones with damaging winds, rains and storm surge between the months of October and May. In the South Pacific and destroyed several homes in the Diii area. Figure 5 shows that Timor-Leste has a 40% chance in the next 50 years of experiencing, at least once, strong to very strong levels of ground shaking. These levels of shaking are expected to cause damage ranging from light to moderate to well-engineered buildings and even more severe damage to structures built with less stringent criteria. region from the equator to New Zealand in latitude and from Indonesia to east of Hawaii in longitude almost 1,000 tropical 125'E 126oE 127 E cyclones with hurricane-force winds spawned in the last 60 Timor-Leste ' eter Dili years, with an average of about 16 tropical storms per year. Kilometers Timor-Leste was subject to cyclones multiple times in the last few decades, such as the early stages of tropical cyclones Esther (1983), Bonnie (2002), and Inigo (2003). Cyclone Daryl in 2006 caused considerable damage in Timor-Leste, in which crops and over 500 houses were destroyed due to winds and floods. Figure 4 shows the levels of wind speed due to tropical cyclones that have about a 40% chance to be exceeded at 12410E 12 ZOE - least once in the next 50 years (100-year mean return period). These wind speeds, if they were to occur, are capable of generating moderate damage to well-engineered buildings, infrastructure and crops with consequent significant economic Dibil losses. Timor-Leste Perceived Shaklng Not Felt Weak ight Moderate Strong Very Strong ISevere Violent Extreme Timor-Leste is situated along one segment of the Pacific "ring Moderare/ Very of fire," which aligns offie, with wic aigs the te boundaries oudaie of o the te tectonicligt econc Moderate Heay Heay Hea PeakACC. %g) <>0. 17 10.17-1.4 1.4-404.0-9 19-17 117-32 132-61 161-114 1>114 plates. These tectonic plate boundaries are extremely active PeakVel.(cm/s) <0.12 0.12-1.1 1.1-3.43.4-8 8-16 16-31 31-59 59-115 >115 seismic zones capable of generating large earthquakes and, in InsrrmentallItensity 1 Il-Ill IV V VI ViI some cases, major tsunamis that can travel great distances. A Scalebased uponwaldera 1999 recent example is the 1995 magnitude 6.9 earthquake, which - - t2a~t12t20 Figure 5: Peak horizontal acceleration of the ground (Note: Ig is equal Ene to the acceleration of gravity) that has about a 40% chance to be exceeded at least once in generated a large tsunami that killed 11 people, injured 19 the next 50 yearso Oec sesse" RISK ANALYSIS RESULTS Tim r-l s t 01 a4l To estimate the risk profile for Timor-Leste posed by tropical 1212 272 E2 1 7 10 50 16 20 0 15 30 60 cyclones and earthquakes, a simulation model of potential 1m E 14 al 121 422 E KilometersK storms and earthquakes that may affect the country in the future was constructed. This model, based on historical data, Dili simulates more than 400,000 tropical cyclones and about 7.6 million earthquakes, grouped in 10,000 potential realizations of the next year's activity in the entire Pacific Basin. The catalog of simulated earthquakes also includes large magnitude events 124-0'Ein 0'E12 South and North America, Japan and the Philippines, which o ecould ecss generate tsunamis that may affect Timor-Leste's shores. The country's earthquake and tropical cyclone risk profiles are derived from an estimation of the direct losses to buildings, I _11, infrastructure assets and major crops caused by all the simulated 527'E potential future events. The direct losses include 0 25 50 75 100 125 150 175 200 the cost of repairing or replacing the damaged assets, but do not include other losses such as contents losses, business interruption losses and losses to primary industries other than Maximum Wind Speed Figure 4: Maximum sustained wind speed (in miles per hour) with a 40% chance to be exceeded at least once in the next 50 years. o-minute

monown -COUNTRY RISK PROFILE: TIMOR-LESTE 125' E 126' E 127' E agriculture. The direct losses for tropical cyclones are caused T o e 2 4 Diii by wind and flooding due to rain and storm surge, while 0 15 30 60 for earthquakes they are caused by ground shaking and tsunami inundation. After assessing the cost of repairing or rebuilding the damaged assets due to the impact of all the simulated potential future events, it is possible to estimate in a probabilistic sense the severity of losses for future catastrophes. Kilometers Tropical Cyclone Earthquake 1 SE I2A420E Average Annual Loss = 0.7 million USD Average Annual Loss = 5.2 million USD IOecusse 45.2o% 45.2% 10.2% 0.2 0 Bildings UBuildinsg, u Infrastructure O Infrastructure 54.6% 86.8% Figure 6: Average annual loss due to tropical cyclones and earthquakes (ground shaking and tsunami) and its contribution from the three types of assets. 50 75 5 1 1 Figure 7: Contribution from the different districts to the average annual loss for tropical cyclone and earthquake (ground shaking and tsunami). The simulations of possible next-year tropical cyclone and 125' E 126' E 127' E earthquake activity show that some years will see no storms Timor-Les te 1il or earthquakes affecting Timor-Leste, while other years may15 30 60 see one or more events affecting the islands, similar to whatkiloeters has happened historically. The annual losses averaged over 10 Dl ~ 0~ 5 20510 23-50 20-500 the many realizations of next-year activity are shown in Figure 6 separately for tropical cyclone and for earthquake and tsunami, while the contributions to the average annual loss from the different subdistricts are displayed in absolute terms in Figure 7 and normalized by the total asset values in 12'1' 12W 20OE each subdistrict in Figure 8. Figure 8 shows how the relative voeciuss e risk varies by subdistrict across the country.au The same risk assessment carried out for Timor-Leste was 0.2%-0.3%==75%-1% also performed for the 14 other Pacific Island Countries. The 04-75055% 0- - 24% 0 i 12410. values of the average annual loss of Timor-Leste and of the 126.E 127'E other 14 countries are compared in Figure 9. Figure 8: Contribution from the different districts to the tropical cyclone and earthquake (ground shaking and tsunami) average annual loss divided by the In addition to estimating average risk per calendar year, rpaeetcs fteast nec itit another way of assessing risk is to examine large and rather infrequent, but possible, future tropical cyclone and Toia yln atqaegon oinii snm earthquake losses. Table 2 summarizes the risk profile for LA~ 100 10 Timor-Leste in terms of both direct losses and o emergency 80 losses. The former are the expenditures needed to repair or replace the damaged assets while the latter are the 60 expenditures that the East Timorese government may need to incur in the aftermath of a natural catastrophe to provide necessary relief and conduct activities such as debris removal, -40 4 setting up shelters for homeless or supplying medicine and food. The emergency losses are estimated as a percentage of the direct losses.ad e n 0 41 Figure 9: Average annual loss for all the 15 Pacific Island Countries considered in this study.

COUNTRY RISK PROFILE: TIMOR-LESTE Table 2 includes the losses that are expected to be exceeded, casualties (i.e., fatalities and injuries) may result from the on average, once every 50, 100, and 250 years. For example, future occurrence of these events. As shown in Table 2, our an earthquake loss exceeding 128 million USD, which is model estimates, for example, that there is a 40% chance equivalent to about 18% of Timor-Leste's GDP, is to be in the next fifty years (100-year mean return period) that expected, on average, once every 100 years. In Timor-Leste, one or more events in a calendar year will cause casualties earthquake losses are expected to be substantially more exceeding 440 people in Timor-Leste. Events causing 1,000 frequent and severe than losses due to tropical cyclones. or more casualties are also possible but have a much lower The latter, however, remain potentially catastrophic events. likelihood of occurring. A more complete picture of the risk can be found in Figure TABLE 2: Estimated Losses and Casualties Caused by Natural Perils 10, which shows the mean return period of direct losses in Mean Return Period (years) AL 50 100 250 million USD generated by earthquake, tsunami and tropical Risk Profile: Tropical Cyclone cyclones combined. The 50-, 100-, and 250-year mean return period losses in Table 2 can also be determined from the Direct Losses curves in this figure. The direct losses are expressed both in (Million USD) 0.7 1.8 12.7 41.3 absolute terms and as a percent of the national GDP. (% GDP) 0.1% 0.3% 1.8% 5.9% Emergency Losses In addition to causing damage and losses to the built (Million USD) 0.2 0.4 2.9 9.5 environment and crops, future earthquakes and tropical (%oftotalgovernment 0.0% 0.1% 0.5% 1.5% cyclones will also have an impact on population. The same expenditures) probabilistic procedure described above for losses has been Casualties 7 21 146 466 adopted to estimate the likelihood that different levels of Risk Profile: Earthquake and Tsunami Direct Losses 1,000, 900 - TC+EQ (Million USD) 5.2 40.3 128.5 297.1 8700 ----- ToO TCp (%/ GDP) 0.7% 5.8% 18.30/ 42.4/0 o - -- EQ 60 600 Emergency Losses 500 (Million USD) 0.8 6.4 20.6 47.6 400 300 200 expenditures) 200 140% 10 ~ - ~.Casualties 14 42 185 766 0 100 200 300 400 500 600 700 800 900 1,000 Risk Profile: Tropical Cyclone, Earthquake, and Tsunami Mean ReturnPeriod (years) Direct Losses -(Million USD) 5.9 55.7 143.7 324.4 120% - TC+EQ (% GDP) 0.8% 7.9% 20.50 46.3% O100% - --- - TC' 100% ---- EEQ Emergency Losses 80% 80 (Million USD) 1.0 9.7 23.9 56.1 6 60% (%/ of total government 0.2% 1.6% 3.9% 9.1% t expenditures) T 40% 20% Casualties 21 169 440 1,138 0% Casualties ' include fatalities and injuries. 0 100 200 300 400 500 600 700 800 900 1,000 Mean Return Period (years) Figure 10: Direct losses (in absolute terms and normalized by GDP) caused by either tropical storms or earthquakes that are expected to be exceeded, on average, once in the time period indicated.

APPLICATIONS The country risk profiles can support multiple applications that benefit both public and private stakeholders. In urban and development planning, planners can use the risk profile information to identify the best location of new development areas, evaluate how natural hazards may shape their development, and to assess whether the benefits of reducing the risk of natural events justify the costs of implementing the risk mitigating measures. In addition, the risk profiles can inform the development of disaster risk financing and insurance solutions and ex ante budget planning options to increase the financial resilience of the countries against natural disasters while maintaining their fiscal balance. The earthquake and tropical cyclone hazard models also provide critical information for building codes in terms of country-specific seismic and wind loads that buildings should be designed for to ensure adequate shelter to the population. The risk information can also help identify existing vulnerable areas and communities located in or adjacent to these areas. This information can assist in supporting more targeted intervention in community-based disaster risk management and climate change adaptation actions. In the occurrence of a natural disaster the database also provides extremely useful baseline data and information for conducting timely and effective post-disaster damage assessments.. ",** 5PC Secretariat of the Pacific * Community M Applied Geoscience and Technology Division (SOPAC) THE WORLD BANK * GFDRR A k IR W O RLDW ID E For information please visit http://pacrisk.sopac.org/ or contact pcrafi@sopac.org