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SATREPS CHILE PROJECT. Gubbler Otárola B. Instituto Nacional de Hidráulica “Understanding of Estimation Methods of Tsunami Damage in Ports.”

Instituto Nacional de Hidráulica• STOC (Storm surge and Tsunami Simulator in Oceans and Coastal areas) Tsunami source Semi-3D model (approximating hydrostatic pressure) STOC-ML

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Page 1: Instituto Nacional de Hidráulica• STOC (Storm surge and Tsunami Simulator in Oceans and Coastal areas) Tsunami source Semi-3D model (approximating hydrostatic pressure) STOC-ML

SATREPS CHILE PROJECT.

Gubbler Otárola B.

Instituto Nacional de Hidráulica“Understanding of Estimation Methods of Tsunami Damage in Ports.”

Page 2: Instituto Nacional de Hidráulica• STOC (Storm surge and Tsunami Simulator in Oceans and Coastal areas) Tsunami source Semi-3D model (approximating hydrostatic pressure) STOC-ML

TEMARIO

• Introducción

• Resultados.

• Visita de terreno a puertos de Shimizu, Nagoya y Kobe.

• Agradecimientos.

Page 3: Instituto Nacional de Hidráulica• STOC (Storm surge and Tsunami Simulator in Oceans and Coastal areas) Tsunami source Semi-3D model (approximating hydrostatic pressure) STOC-ML

INTRODUCCIÓN

Curso de entrenamiento “Comprensión de Métodosestimación de daños por tsunami en puertos”. ProyectoSATREPS CHILE.

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Objetivo principal lograr un Mejoramiento de la Tecnología para el Desarrollo de una Comunidad Tsunami-resiliente.

La resiliencia es la capacidad de los seres vivos parasobreponerse a períodos de dolor emocional ysituaciones adversas. Cuando un sujeto o grupo escapaz de hacerlo, se dice que tiene una resilienciaadecuada, y puede sobreponerse a contratiempos oincluso resultar fortalecido por éstos.

Objetivos específicos:

Desarrollar medidas de mitigación que integren las lecciones de eventos recientes.

Contribuir a mejorar las capacidades regionales de reducción de riesgo frente a tsunamis.

Diseminar las lecciones aprendidas en los eventos del 2010, 2011 y 2014.

Page 5: Instituto Nacional de Hidráulica• STOC (Storm surge and Tsunami Simulator in Oceans and Coastal areas) Tsunami source Semi-3D model (approximating hydrostatic pressure) STOC-ML

¿Por qué usamos el modelo STOC?

Page 6: Instituto Nacional de Hidráulica• STOC (Storm surge and Tsunami Simulator in Oceans and Coastal areas) Tsunami source Semi-3D model (approximating hydrostatic pressure) STOC-ML

¿Por qué usamos modelo STOC?

• Calcula la extensión de la onda de tsunami.

Page 7: Instituto Nacional de Hidráulica• STOC (Storm surge and Tsunami Simulator in Oceans and Coastal areas) Tsunami source Semi-3D model (approximating hydrostatic pressure) STOC-ML

¿Por qué usamos modelo STOC?

• Calcula la extensión de la onda de tsunami.

• Calcula la inundación provocada por el tsunami.

Page 8: Instituto Nacional de Hidráulica• STOC (Storm surge and Tsunami Simulator in Oceans and Coastal areas) Tsunami source Semi-3D model (approximating hydrostatic pressure) STOC-ML

Modelo numérico (STOC)

• STOC (Storm surge and Tsunami Simulator in Oceans and Coastal areas)

Tsunami source

Semi-3D model (approximating hydrostatic

pressure) STOC-ML 3D model STOC-IC(estimating coastal damage)

Drift model

STOC-DM

※ ML:Multy Layer, IC:Integrated Continuity equation, DM:Drifted Multi-body

Page 9: Instituto Nacional de Hidráulica• STOC (Storm surge and Tsunami Simulator in Oceans and Coastal areas) Tsunami source Semi-3D model (approximating hydrostatic pressure) STOC-ML

¿Por qué usamos modelo STOC?

• Calcula la extensión de la onda de tsunami.

• Calcula la inundación provocada por el tsunami.

• Calcula el comportamiento de cuerpos a la deriva por el

tsunami (containers, ships and cars).

Page 10: Instituto Nacional de Hidráulica• STOC (Storm surge and Tsunami Simulator in Oceans and Coastal areas) Tsunami source Semi-3D model (approximating hydrostatic pressure) STOC-ML

¿Por qué usamos modelo STOC?

• Calcula la extensión de la onda de tsunami.

• Calcula la inundación provocada por el tsunami.

• Calcula el comportamiento de cuerpos a la deriva por el

tsunami (containers, ships and cars).

• Se trabajo en modelaciones para los puertos de Talcahuano e

Iquique.

Modelaciones realizadas.

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Bahía de Concepción.

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Bahía de Concepción.

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Puerto de Talcahuano.

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Seismic sources.Moreno et al (2012) [left]Delouis (2010) [right]

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8 grids.

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Models Parameters.

Grid 7 Grid 8

Resolution 6 [m]. Resolution 2 [m].

Input timestep: 0,01 [s]. Input timestep: 0,01 [s].

Output timestep: 1 [s]. Output timestep: 1 [s].

Modeling time: 240 minutes

Page 17: Instituto Nacional de Hidráulica• STOC (Storm surge and Tsunami Simulator in Oceans and Coastal areas) Tsunami source Semi-3D model (approximating hydrostatic pressure) STOC-ML

Compare sintetic tide gauge data and real data.

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Tiempo de arrivo.

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Profundidad de inundación.

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Drifter data to grid 7

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Drifter data.

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Puerto de Iquique.

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Puerto de Iquique.

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Puerto de Iquique.

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Puerto de Iquique

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Visita a terreno.

• Entre los días 10 y 15 de junio se realizó la visita a terreno de los puertos de Shimizu, Nagoya y Kobe.

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Shimizu port (june 10).

Page 28: Instituto Nacional de Hidráulica• STOC (Storm surge and Tsunami Simulator in Oceans and Coastal areas) Tsunami source Semi-3D model (approximating hydrostatic pressure) STOC-ML

Shimizu port (june 10).

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Nagoya Port (june 11)

Page 34: Instituto Nacional de Hidráulica• STOC (Storm surge and Tsunami Simulator in Oceans and Coastal areas) Tsunami source Semi-3D model (approximating hydrostatic pressure) STOC-ML

Nagoya Port (june 11)

Page 35: Instituto Nacional de Hidráulica• STOC (Storm surge and Tsunami Simulator in Oceans and Coastal areas) Tsunami source Semi-3D model (approximating hydrostatic pressure) STOC-ML

Nagoya Port (june 11)

Page 36: Instituto Nacional de Hidráulica• STOC (Storm surge and Tsunami Simulator in Oceans and Coastal areas) Tsunami source Semi-3D model (approximating hydrostatic pressure) STOC-ML
Page 37: Instituto Nacional de Hidráulica• STOC (Storm surge and Tsunami Simulator in Oceans and Coastal areas) Tsunami source Semi-3D model (approximating hydrostatic pressure) STOC-ML

Entrevista a dos canales de TV local de Nagoya

Page 38: Instituto Nacional de Hidráulica• STOC (Storm surge and Tsunami Simulator in Oceans and Coastal areas) Tsunami source Semi-3D model (approximating hydrostatic pressure) STOC-ML

○南米チリの津波学者が名港視察取材日:平成27年6月12日(金)放映日:平成27年6月12日(金)

放送局:メーテレ【UP!】

ナレーション:「まずは日本のように携帯電話に地震速報を配信できるようにしていきたい」と話しました。

ナレーション:南米チリの津波研究者が名古屋港を視察しました。名古屋港を視察に訪れたのは、津波による被害を予測する研究を行っているチリの研究者2人です。

ナレーション:今日は船に乗って、名古屋港の湾内から高潮防波堤などを視察しました。

ナレーション:研究者らは、「チリは海岸が長く高潮防波堤を作ることは難しい。」

Page 39: Instituto Nacional de Hidráulica• STOC (Storm surge and Tsunami Simulator in Oceans and Coastal areas) Tsunami source Semi-3D model (approximating hydrostatic pressure) STOC-ML

○南米チリの学者が名古屋港視察取材日:平成27年6月12日(金)放映日:平成27年6月12日(金)

放送局:テレビ愛知【ニュースアンサー】

港湾空港技術研究所 本多和彦さん:「構造物だけでは補えないところもあるので、ソフト対策と組み合わせて効果的な津波防災に活かせるか検討したい」ナレーション:チリの海洋学者はチリでは防波堤のような防災設備だけでなく、警報機などでいち早く津波を知らせるシステムを整備していきたい、と話していました。

ナレーション:日本の津波対策を学んでもらおうと、国際協力機構、JICA

は今日、南米チリの海洋学者らを招き、名古屋港の防波堤を視察しました。

ナレーション:この視察はJICAが発展途上国などに行っている技術協力の一環で、今日は2010年に大地震による津波で多くの犠牲者を出した南米チリの海洋学者ら2人が名古屋港にある高さ8mの高潮防波堤を視察。

ナレーション:日本の港湾研究者から名古屋港の防災・減災対策について説明を受けました。

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Breakwaves.

Page 43: Instituto Nacional de Hidráulica• STOC (Storm surge and Tsunami Simulator in Oceans and Coastal areas) Tsunami source Semi-3D model (approximating hydrostatic pressure) STOC-ML
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Kobe port.

Page 45: Instituto Nacional de Hidráulica• STOC (Storm surge and Tsunami Simulator in Oceans and Coastal areas) Tsunami source Semi-3D model (approximating hydrostatic pressure) STOC-ML

Kobe port.

Page 46: Instituto Nacional de Hidráulica• STOC (Storm surge and Tsunami Simulator in Oceans and Coastal areas) Tsunami source Semi-3D model (approximating hydrostatic pressure) STOC-ML

Kobe port.

Page 47: Instituto Nacional de Hidráulica• STOC (Storm surge and Tsunami Simulator in Oceans and Coastal areas) Tsunami source Semi-3D model (approximating hydrostatic pressure) STOC-ML

Kobe port.

Page 48: Instituto Nacional de Hidráulica• STOC (Storm surge and Tsunami Simulator in Oceans and Coastal areas) Tsunami source Semi-3D model (approximating hydrostatic pressure) STOC-ML
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Acknowledgements.

• SATREPS JICA PROJECTS

• INH

• PARI

• Tomita san.

• Honda san.

• Tsunami team.

Page 52: Instituto Nacional de Hidráulica• STOC (Storm surge and Tsunami Simulator in Oceans and Coastal areas) Tsunami source Semi-3D model (approximating hydrostatic pressure) STOC-ML

Arigatò gozaimasu