Publish with Nova Science Publishers
We publish over 800 titles annually by leading researchers from around the world. Submit a Book Proposal Now!
FX Anjar Tri Laksono¹,²
¹Doctoral School of Earth Sciences, Department of Geology and Meteorology, Institute of Geography and Earth Sciences, Faculty of Sciences, University of Pecs, Pécs, Baranya, Hungary
²Department of Geological Engineering, Faculty of Engineering, Jenderal Soedirman University, Purbalingga, Central Java, Indonesia
Part of the book: Tsunamis: Detection Technologies, Response Efforts and Harmful Effects
The tsunami tragedy in southern Java, Indonesia, in 2006 induced casualties of almost 1000 people and an economic loss of approximately USD 1 billion. The recurrence period for the tsunami in southern Java is not yet known. The subduction zone between the Eurasia continental plate and the Indo-Australia oceanic plate throughout the southern region of Java Island is a vulnerable zone whose number of earthquake sources are unknown until nowadays. This zone is a densely populated area and the largest source of Indonesian economic income besides the north coast of Java. Therefore, a building vulnerability study is required to minimize casualties and financial losses. The Papathoma Tsunami Vulnerability Assessment (PTVA-4) modeling is a suitable method to be developed because it is reliable and does not need high costs. The discussion of this chapter presents an example of the PTVA-4 modeling application in Cilacap, Indonesia, the area that was hit by the 2006 tsunami.
Keywords: Indonesia, PTVA-4, relative vulnerability index, surface roughness coefficient, tsunami hazard index
Abdurrachman M, Widiyantoro S, Priadi B, Alim MZA and Dewangga AH. (2015).
Proposed new Wadati-Benioff Zone model in Java-Sumatra Subduction Zone and its
tectonic implication. Joint Convention Balikpapan, 1-4.
Aditama MR, Sunan HL, Tri Laksono FA, Ramadhan G, Iswahyudi S and Fadlin. (2021).
Integrated Subsurface Analysis of Thickness and Density for Liquefaction Hazard:
Case Study of South Cilacap Region, Indonesia. Journal of Geoscience, Engineering,
Environment, and Technology, 58-66.
Asri AK, Elya H, Duantari N, Suryaningsih E and Victoria LDDD. (2016). Dual Mitigation
System: Database System Combination of EWS and APRS for Disaster Management
(Case Study: Malang Southern Coast). Procedia-Social and Behavioral Sciences, 227.
Batzakis DV, Misthos LM, Voulgaris G, Tsanakas K, Andreou M, Tsodoulos I and
Karymbalis E. (2020). Assessment of building vulnerability to tsunami hazard in
kamari (Santorini island, greece). Journal of Marine Science and Engineering, 886.
Dall’Osso F, Dominey-Howes D, Tarbotton C, Summerhayes S and Withycombe G.
(2016). Revision and improvement of the PTVA-3 model for assessing tsunami
building vulnerability using “international expert judgment”: introducing the PTVA 4 model. Natural Hazards, 1229-1256.
Dewi RS. (2012). A-Gis Based Approach of an Evacuation Model for Tsunami Risk
Reduction. Journal of Integrated Disaster Risk Management, 108-139.
Fujii Y and Satake K. (2006). Source of the July 2006 West Java tsunami estimated from
tide gauge records. Geophysical Research Letters, L24317.
Gunawan E, Meilano I, Abidin HZ, Hanifa NR and Susilo. (2016). Investigation of the best
coseismic fault model of the 2006 Java tsunami earthquake based on mechanisms of
postseismic deformation. Journal of Asian Earth Sciences, 64-72.
Hall S, Pettersson J, Meservy W, Harris R, Agustinawati D, Olson J and McFarlane A.
(2017). Awareness of tsunami natural warning signs and intended evacuation
behaviors in Java, Indonesia. Natural Hazards, 473-496.
Harisuthan S, Hasalanka H, Kularatne D and Siriwardana C. (2020). Applicability of the
PTVA-4 model to evaluate the structural vulnerability of hospitals in Sri Lanka against
tsunami. International Journal of Disaster Resilience in the Built Environment, 581-596.
Izquierdo T, Fritis E and Abad M. (2018). Analysis and validation of the PTVA tsunami
building vulnerability model using the 2015 Chile post-tsunami damage data in
Coquimbo and la Serena cities. Natural Hazards and Earth System Sciences, 1703-1716.
Kato T, Ito T, Abidin HZ and Agustan. (2007). Preliminary report on crustal deformation
surveys and tsunami measurements caused by the July 17, 2006 South off Java Island
Earthquake and Tsunami, Indonesia. Earth, Planets and Space, 1055-1059.
Koulali A, McClusky S, Susilo S, Leonard Y, Cummins P, Tregoning P, Meilano I, Efendi
J and Wijanarto AB. (2017). The kinematics of crustal deformation in Java from GPS
observations: Implications for fault slip partitioning. Earth and Planetary Science Letters, 69-79.
Laksono FA, Aditama MR, Setijadi R and Ramadhan G. (2020). Run-up Height and Flow
Depth Simulation of the 2006 South Java Tsunami Using COMCOT on Widarapayung
Beach. IOP Conference Series: Materials Science and Engineering, 012047.
Laksono FAT, Tsai LLY and Pilarczyk J. (2021). The Sedimentological Record of Upper
Holocene Tsunami Event in Fengbin, Taiwan. Geopersia, 169-203.
Macías J, Castro MJ, Ortega S and González-Vida JM. (2020). Performance assessment of
Tsunami-HySEA model for NTHMP tsunami currents benchmarking. Field cases. Ocean Modelling, 101645.
Madani S, Khaleghi S and Jannat MRA. (2017). Assessing building vulnerability to
tsunami using the PTVA-3 model: A case study of Chabahar Bay, Iran. Natural Hazards, 349-359.
Mardiatno D, Malawani MN and Nisaa’ RM rifatun. (2020). The future tsunami risk
potential as a consequence of building development in Pangandaran Region, West
Java, Indonesia. International Journal of Disaster Risk Reduction, 101523.
Papathoma-Köhle M, Cristofari G, Wenk M and Fuchs S. (2019). The importance of
indicator weights for vulnerability indices and implications for decision making in
disaster management. International Journal of Disaster Risk Reduction, 101103.
Pilarczyk JE, Dura T, Horton BP, Engelhart SE, Kemp AC and Sawai Y. (2014).
Microfossils from coastal environments as indicators of paleo-earthquakes, tsunamis
and storms. Palaeogeography, Palaeoclimatology, Palaeoecology, 144-157.
Rosalia S, Widiyantoro S, Nugraha AD and Supendi P. (2019). Double-difference
tomography of p-and s-wave velocity structure beneath the western part of Java,
Indonesia. Earthquake Science, 12-25.
Salmanidou DM, Ehara A, Himaz R, Heidarzadeh M and Guillas S. (2021). Impact of future
tsunamis from the Java trench on household welfare: Merging geophysics and
economics through catastrophe modelling. International Journal of Disaster Risk Reduction, 102291.
Samaras AG, Karambas TV and Archetti R. (2015). Simulation of tsunami generation,
propagation and coastal inundation in the Eastern Mediterranean. Ocean Science, 643-655.
Sassa S and Takagawa T. (2019). Liquefied gravity flow-induced tsunami: First evidence
and comparison from the 2018 Indonesia Sulawesi earthquake and tsunami disasters.
Shinozaki T, Sawai Y, Hara J, Ikehara M, Matsumoto D and Tanigawa K. (2016).
Geochemical characteristics of deposits from the 2011 Tohoku-oki tsunami at
Hasunuma, Kujukuri coastal plain, Japan. Island Arc, 350-368.
Strusińska-Correia A. (2017). Tsunami mitigation in Japan after the 2011 Tōhoku Tsunami.
In International Journal of Disaster Risk Reduction, 397-411.
Suppasri A, Muhari A, Syamsidik Yunus R, Pakoksung K, Imamura F, Koshimura S and
Paulik R. (2018). Vulnerability characteristics of tsunamis in indonesia: Analysis of
the global centre for disaster statistics database. Journal of Disaster Research, 1039-1048.
Tappin DR. (2021). Submarine landslides and their tsunami hazard. In Annual Review of
Earth and Planetary Sciences, 551-578.
Tarbotton C, Dominey-Howes D, Goff JR, Papathoma-Kohle M, Dall’osso F and Turner
IL. (2012). GIS-based techniques for assessing the vulnerability of buildings to
tsunami: Current approaches and future steps. Geological Society Special Publication, 115.
Widiyantoro S, Gunawan E, Muhari A, Rawlinson N, Mori J, Hanifa NR, Susilo S, Supendi
P, Shiddiqi HA, Nugraha AD and Putra HE. (2020). Implications for megathrust
earthquakes and tsunamis from seismic gaps south of Java Indonesia. Scientific Reports, 15274.