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Research Article

Intercomparing atmospheric reanalysis products for hydrodynamic and wave modeling of extreme events during the open-water Arctic season

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Pages 125-146 | Received 21 Aug 2021, Accepted 25 Mar 2022, Published online: 10 May 2022

Figures & data

Figure 1. Study area, including Alaska and Eastern Siberia, as well as the hydrometeorological stations used to assess the hydrodynamic and wave modeling approach.

Figure 1. Study area, including Alaska and Eastern Siberia, as well as the hydrometeorological stations used to assess the hydrodynamic and wave modeling approach.

Figure 2. (a) Developed numerical mesh, with higher resolution in the (b) coast of Alaska. Mesh resolution is given by the distance between nodes in kilometers.

Figure 2. (a) Developed numerical mesh, with higher resolution in the (b) coast of Alaska. Mesh resolution is given by the distance between nodes in kilometers.

Table 1. Available wind and pressure forcing products implemented in the proposed ADCIRC+SWAN model

Figure 3. Storm progression in terms of wind magnitude and speed and MSL pressure during (a) Storm 1, (b) Storm 2, and (c) Storm 3.

Figure 3. Storm progression in terms of wind magnitude and speed and MSL pressure during (a) Storm 1, (b) Storm 2, and (c) Storm 3.

Figure 4. Observed and simulated storm surges (total water level − tides) for all available wind and pressure forcings during Storm 1.

Figure 4. Observed and simulated storm surges (total water level − tides) for all available wind and pressure forcings during Storm 1.

Figure 5. Observed and simulated storm surges (total water level − tides) for all available wind and pressure forcings during Storm 2.

Figure 5. Observed and simulated storm surges (total water level − tides) for all available wind and pressure forcings during Storm 2.

Figure 6. Observed and simulated storm surges (total water level − tides) for all available wind and pressure forcings during Storm 3.

Figure 6. Observed and simulated storm surges (total water level − tides) for all available wind and pressure forcings during Storm 3.

Figure 7. Observed and simulated Hs for all available wind and pressure forcings during Storm 1.

Figure 7. Observed and simulated Hs for all available wind and pressure forcings during Storm 1.

Figure 8. Observed and simulated Hs for all available wind and pressure forcings during Storm 2.

Figure 8. Observed and simulated Hs for all available wind and pressure forcings during Storm 2.

Figure 9. Observed and simulated Hs for all available wind and pressure forcings during Storm 3.

Figure 9. Observed and simulated Hs for all available wind and pressure forcings during Storm 3.

Figure 10. Taylor diagram of (a)–(c) surges and (d)–(f) waves for individual stations (small “x”) as well as averaged by storm (large “x”). The blue triangle indicates the observed data.

Figure 10. Taylor diagram of (a)–(c) surges and (d)–(f) waves for individual stations (small “x”) as well as averaged by storm (large “x”). The blue triangle indicates the observed data.

Table 2. Storm surge RMSE (in meters) for each station and storm for all forcings considered

Table 3. Hs RMSE (in meters) for each buoy and storm for all forcings considered

Figure 11. Peak (a)–(c) surge and (d)–(f) Hs for each monitored station during (a), (d) Storm 1, (b), (e) Storm 2, and (c), (f) Storm 3.

Figure 11. Peak (a)–(c) surge and (d)–(f) Hs for each monitored station during (a), (d) Storm 1, (b), (e) Storm 2, and (c), (f) Storm 3.
Supplemental material

Supplemental Material

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