Title of article :
Tsunami Assessment for Inundation Risk Management at Chabahar Bay Facilities in Iran
Author/Authors :
Akbarpour Jannat, Mahmood Reza Iranian National Institute for Oceanography and Atmospheric Science (INIOAS) - Ocean Engineering and Technology Research Center, Tehran , Rastgoftar, Ehsan Iranian National Institute for Oceanography and Atmospheric Science (INIOAS) - Ocean Engineering and Technology Research Center, Tehran , Asano, Toshyuki Dept. of Ocean Civil Engineering - Kagoshima University, Japan
Abstract :
In this study two numerical models, one a regional generation and propagation
model and the other an inundation model, have been applied to the problem of
examining the impact that a large, locally generated tsunami could have on
Chabahar Bay facilities in Iran. To achieve a realistic outlook of tsunami
hazards in the area, the generation, propagation and interaction of tsunami
waves with Chabahar Bay coasts is being numerically modeled for specific
events. The modeling is performed using the numerical code which solves the
nonlinear Boussinesq wave equations. Results of numerical simulations
performed in this study considering past tsunami occurrence records indicate
that the multipurpose Chabahar Port is expected to experience the tsunami
events with heights ranging between 8 to 10 meters. The model gives
approximately the observed maximum area of flooding of Chabahar City. The
large and small amount of fooding of Chabahar city coasts, Iran from the 9.1
and 8.3 magnitude erarthquake achieved respectively and extensively flooding
was reproduced by the numerical model. The effect of the tide was modeled
and found to be small. The results of this study are intended for emergency
planning purposes. Appropriate use would include the identification of
evacuation zones. The results are used also to find a best configuration advice
for the urban facilities in order to mitigate tsunami related risks, with
positioning such facilities at the Western Cape of the bay.
Keywords :
Makran Subduction Zone , Earthquakes , Tsunamis , Numerical model , Inundation
Journal title :
Astroparticle Physics