Modeling of the 2011 Tohoku-oki. oki Tsunami and it s s impacts to Hawaii

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WAVES 11, KONA HAWAI`I Modeling of the 2011 Tohoku-oki oki Tsunami and it s s impacts to Hawaii Yoshiki Yamazaki 1, Volker Roeber 1, Kwok Fai Cheung 1 and Thorne Lay 2 1 Department of Ocean and Resources Engineering University of Hawaii at Manoa 2 Department of Earth and Planetary Sciences University of California, Santa Cruz October 31, 2011 Hilton Waikoloa Village, Kona, Hawai`i

Outline 1. NEOWAVE Theoretical and Numerical Formulations 2. Finite-Fault Model and Tsunami Generation Finite Fault Solution Tsunami Generation and Near-field Tsunami Modeling 3. Tsunami Propagation and Impacts on Hawaii Tsunami Propagation across Pacific Tide Gauge Prediction at Honolulu, Oahu Runup and Inundation Modeling at Waikoloa, Big Island 4. Conclusions 5. Future Studies and Developments

NEOWAVE (Non-hydrostatic Evolution of Ocean WAVE ) Governing Equations Depth-integrated, Non-hydrostatic Equation Consideration of Weakly Wave Dispersion through Non-hydrostatic Pressure. (Stelling and Zijlema, 2003; Yamazaki et al., 2009 & 2011) Numerical Schemes Semi-implicit, Finite Difference (FD) Model Explicit Hydrostatic solution Implicit Non-hydrostatic solution Momentum Conserved Advection (MCA) Scheme Shock Capturing Scheme for FD Models (Stelling and Duinmeijer, 2003; Yamazaki et al., 2009 & 2011) Grid Refinement Scheme Two-way Grid-nesting scheme of Yamazaki et al. (2011) ensures propagation of dispersive waves and discontinuities across the intergrid boundary.

NEOWAVE NEOWAVE x-momentum equation D V U V f h y D q y q y g y V V x V U t V 2 2 2 1 2 1 Continuity equation z-momentum equation y-momentum equation D V U U f h x D q x q x g y U V x U U t U 2 2 2 1 2 1 D q t W 0 ) ( ) ( ) ( y VD x UD t Governing Equations Depth-integrated, Non-hydrostatic Equations in Cartesian Grid

The 2011 Tohoku-oki oki Earthquake Finite Fault Model Mw = 9.0 05:46:18, March 11, 2011 (UTC) 14:46:18, March 11, 2011 (Local time) Zhao et al. (2011) epicenter : 38.107 N, 142.916 E depth : 14.5 km USGS: =194.4º, =10º 625km x 260km UCSB: =198º, =10º 475km x 200km JMA epicenter : 38.103 N, 142.861 E depth : 24.0 km USGS epicenter : 38.297 N, 142.372 E depth : 30.0 km Lay et al. (2011): =202º, =12º Lay model (P-MOD1) Ammon model (J-MOD) 380km x 200km 600km x 210km Strike angle: 190º < < 202º Dip angle: 10º < < 12º

Tsunami Generation and Near-field Impact Model Setup: Two Levels of Nested Grids Level-1 Grid 2 arcmin (~3700m) Northwest Pacific Level-2 Grid 24 arcsec (~600m) East Japan

Tsunami Generation and Near-field Impact Tsunami Generation with Finite Fault Solution Rupture Duration: 148 sec (~2.5min) Max D0 = 58.1m Max η = 25 m

QuickTime and a H.264 decompressor are needed to see this picture.

Tsunami Generation and Near-field Impact GPS Buoys and Wave Gauge Comparisons Time-series and Spectra of Surface Elevations : computed results : recorded data

Distant Tsunami Evolution Tsunami Impact over North Pacific DART Buoys Locations in North Pacific

Distant Tsunami Evolution Tsunami Impact over North Pacific DART Buoys Locations in North Pacific QuickTime and a H.264 decompressor are needed to see this picture.

Distant Tsunami Evolution DART Buoy Comparisons (Northwest Pacific) Time-series and Spectra of Surface Elevations : computed results : recorded data

Distant Tsunami Evolution DART Buoy Comparisons (Northeast Pacific) Time-series and Spectra of Surface Elevations : computed results : recorded data

Distant Tsunami Evolution Tsunami Impact over North Pacific Maximum Wave Amplitude

Distant Tsunami Evolution Tsunami Impact on Hawaii Shallow Shelf around Hawaiian Island Chain

Distant Tsunami Evolution Distant Tsunami Evolution Tsunami Impact on Hawaii Maximum Wave Amplitude

Distant Tsunami Evolution Tide Gauge Comparison at Honolulu, Oahu Level-2 Grid 15 arcsec (~450m) Hawaiian Islands Four Level of Nested-Girds Level-4 Grid 0.3 arcsec (~9m) Honolulu Level-3 Grid 3 arcsec (~90m) Northwest Pacific Time-series and Spectra of Surface Elevations : computed results : recorded data

Distant Tsunami Evolution Tsunami Impact at West Big Island Four Level of Nested-Girds Level-3 Grid 3 arcsec (~90m) Northwest Big Island Level-4 Grid 0.3 arcsec (~9m) Waikoloa QuickTime and a H.264 decompressor are needed to see this picture.

Distant Tsunami Evolution Tsunami Impact at Waikoloa, Big Island Wave Transformation and Resulting Runup and Inundation QuickTime and a H.264 decompressor are needed to see this picture. : computed results z : recorded data

Conclusions 2011 Tohoku-oki oki earthquake tsunami provides the best extensive recorded dataset for better understanding of earthquake and tsunami physics and improvement of assessment tools. A Finite-Fault Fault model provides the time sequence of rupture processes to model tsunami generation from seafloor deformation and considering land subsidence. NEOWAVE gives good agreement with recorded water level stations along the Japan and across the Pacific, which validates the Finite-Fault Fault model as well as the capability of NEOWAVE for modeling both near-field and distant tsunamis.

Future Studies and Developments Future Studies (1) Modeling other Hawaiian Islands coastlines (2) Modeling Runup/Inundation and studying Resonance Amplification for coast of Tohoku, Japan, and US West coast. Developments (1) Improvement of Dispersion (2) Parallelization of NEOWAVE Applications (1) Tsunami Inundation Mapping for Hawaii, Northwest Hawaiian Islands, American Samoa, Western Samoa, US Gulf coasts, Puerto Rico, and Chile. (2) Storm Surge and Wave Modeling for Pacific Islands and US East coasts.