Tsunami Numerical Modeling and Static Stress Transfer of the 1960 Northern Peru Earthquake (Mw 7.6)

In this research, we conducted the numerical simulation of the tsunami, and the static stress transfer of Coulomb for the 1960 northern Peru earthquake (Mw 7.6). The Tsunami numerical model was used to simulate the propagation and inundation processes. In the inundation grid, we used a high resolution bathymetry (30[Formula: see text]m resolution) from marine sounding. For the inundation grid (grid D), the results of simulated model are parameters such as arrival times of the first wave of the tsunami, maximum wave heights and inundation areas for each zone to be modeled. These results have been validated with information provided by the population that endured the effects of the earthquake and subsequent tsunami. The simulated arrival times of the leading wave for the areas of San José, Pimentel, Santa Rosa and Puerto Eten were 69.5, 69, 66.5 and 68[Formula: see text]min, respectively. The maximum inundation in San José was 2.78[Formula: see text]km away and the height of the wave reached approximately 6.2[Formula: see text]m. The Coulomb stress transfer indicates an increase in stress in the northern zone of the seismic source close to Piura coast, as well as an increase in stress between the Peruvian trench and the seismic source near the meridians [Formula: see text] and [Formula: see text] which implies an activation of seismicity and a potential zone for a next seismic event of similar or greater magnitude.

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Publication Details

Journal
Journal of Earthquake and Tsunami
Published
2024-12-31
DOI
https://doi.org/10.1142/s1793431124500404
Primary Topic
Geomagnetism and Paleomagnetism Studies
Type
article
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article

Tsunami Numerical Modeling and Static Stress Transfer of the 1960 Northern Peru Earthquake (Mw 7.6)

Nick Moreno, Juan Carlos Villegas Lanza, César Jiménez
Journal of Earthquake and Tsunami
Geomagnetism and Paleomagnetism Studies
article

Tsunami Numerical Modeling and Static Stress Transfer of the 1960 Northern Peru Earthquake (Mw 7.6)

Nick Moreno, Juan Carlos Villegas Lanza, César Jiménez
article en

Abstract

In this research, we conducted the numerical simulation of the tsunami, and the static stress transfer of Coulomb for the 1960 northern Peru earthquake (Mw 7.6). The Tsunami numerical model was used to simulate the propagation and inundation processes. In the inundation grid, we used a high resolution bathymetry (30[Formula: see text]m resolution) from marine sounding. For the inundation grid (grid D), the results of simulated model are parameters such as arrival times of the first wave of the tsunami, maximum wave heights and inundation areas for each zone to be modeled. These results have been validated with information provided by the population that endured the effects of the earthquake and subsequent tsunami. The simulated arrival times of the leading wave for the areas of San José, Pimentel, Santa Rosa and Puerto Eten were 69.5, 69, 66.5 and 68[Formula: see text]min, respectively. The maximum inundation in San José was 2.78[Formula: see text]km away and the height of the wave reached approximately 6.2[Formula: see text]m. The Coulomb stress transfer indicates an increase in stress in the northern zone of the seismic source close to Piura coast, as well as an increase in stress between the Peruvian trench and the seismic source near the meridians [Formula: see text] and [Formula: see text] which implies an activation of seismicity and a potential zone for a next seismic event of similar or greater magnitude.

Journal of Earthquake and TsunamiVol. 19(03)
National University of San Marcos (PE), Universidad San Ignacio de Loyola (PE), Instituto Geofísico del Perú (PE)
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Geomagnetism and Paleomagnetism Studies
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