Great Lakes Ice Database, 1973-present 1/15 Great Lakes Ice & Climate Research, Modeling, and Applications Jia Wang Integrated Physical & Ecological Modeling.

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Great Lakes Ice Database, 1973-present 1/15 Great Lakes Ice & Climate Research, Modeling, and Applications Jia Wang Integrated Physical & Ecological Modeling & Forecasting Place Photo Here

IPEMF | Great Lakes Ice & Climate Research 1) R&D: Major global-scale atmospheric teleconnection patterns Warm Phase Cold Phase Great Lakes ice correlates to AMO (linear: r=-0.31) and PDO (non-linear: r=0.19) Wang et al. (submitted) 2/15

Great Lake ice correlates to NAO/AO (linear: r=-0.29), ENSO (nonlinear: r=-0.22) North Atlantic Oscillation (NAO) (Arctic Oscillation) Pacific North America Pattern (PNA) (El Nino/La Nina, ENSO) Ice and NAO: Linear relationship Ice and ENSO: Nonlinear and asymmetric relationship IPEMF | Great Lakes Ice & Climate Research 3/15

Strategy of Projecting Lake Ice Climate Teleconnection Indices 500mb-height, SLP, surface air temperature and wind changes Lake Ice Cover  C (SAT,ice)=-0.8 to -0.9 ???? Hard to predict on medium range IPEMF | Great Lakes Ice & Climate Research 4/15

R2A: Medium-range projection of lake ice using climate indices of NAO, Nino3.4, AMO, and PDO Hindcast R2A: Seasonal prediction model: Blue – old model (Using NAO and ENSO only), r=0.44 Red – new model (Using NAO, ENSO, and AMO, PDO) r=0.68 MODIS 03/06/2014 (GLERL led the efforts with CILER, NIC, academia, LimnoTech) Using the models, GLERL has provided a seasonal ice outlook since 2010: This winter—Annual Maximum Ice Coverage (AMIC) was projected to be 31% in November 2015; On 2/14/2016, AMIC was 34% (average is 53%) IPEMF | Great Lakes Ice & Climate Research 5/15

R2O: GLIM 5-day Prediction during (heavy) ice season Prediction skill has been improved from 2012 to 2014 by nudging daily ice concentration from National Ice Center. 2) R&D: Development of Great Lakes Ice-circulation Model (GLIM): Satellite and in situ data used to validate GLIM (Joint efforts by GLERL and CILER) IPEMF | Great Lakes Ice & Climate Research 6/15 Wang et al. (2010). JGLR.

R2O: GLERL Ice Forecast (GLIM) has been incorporated into the GLCFS since Select “Ice” 5-day Forecast Ice Concentration Ice Thickness IPEMF | Great Lakes Ice & Climate Research Wang et al. (2010). JGLR; Fujisaki et al. (2012). JGLR; Fujisaki et al. (2013). JGR. 7/15

Aug Measured Lake Surface Temperature Grids Modeled Lake Surface Temperature Modeled summer circulation IPEMF | Great Lakes Ice & Climate Research 8/15 Bai et al. (2013). Ocean Modelling; Luo et al. (2012). JGR) 3) R&D: Development of 5-lake unstructured-grid FVCOM with ice

R&D: Implement the Modified FVCOM-Ice to All Five Great Lakes Observed FVCOM-ice Observed (Lake Michigan) Centered differencing Original: EF+RK IPEMF | Great Lakes Ice & Climate Research 9/15 Manome and Wang (submitted)

Ice-free in 2035? 4) R&D: Arctic Dipole Anomaly (DA) is the major forcing that accelerates Arctic summer sea ice decline DA is the 2 nd EOF mode of Sea Level Pressure Anom. north of 70N (Collaborated with PMEL) IPEMF | Great Lakes Ice & Climate Research Wang et al., (2009, 2014). 10/15

R2A: Impacts of diminishing summer sea ice on commercial shipping nm = Nautical Mile = km 7000nm 7600nm 10000nm 11000nm 15000nm Support of new leadership of Arctic Council by U.S. in IPEMF | Great Lakes Ice & Climate Research Lei et al. (2015). Cold Regions Science and Technology. Lei et al. (2016). Polar Research. 11/15

5) R&D: GLERL’s Coupled Ice-Ocean-Ecosystem Models in the Arctic Ocean CIOM-PhEcoM chl-a Satellite In situ August 2008 μg/L Cloud cover (Potential R2X in near future) IPEMF | Great Lakes Ice & Climate Research 12/15 Wang et al. (2013, 2014). JGR. ICEPOM (20km), thickness Arctic-FVCOM-ice grids (1-10km) Arctic-FVCOM-ice, V_sfc

13/15 IPEMF | Great Lakes Ice & Climate Research Summary Research revealed the relationships between Great Lakes ice cover and 4 major teleconnection patterns, and led to development of statistical regression models, providing seasonal projection of lake ice using indices of NAO, ENSO, AMO and PDO Great Lakes Ice-circulation Model (GLIM) (POM-based) was developed for studying interactions between water and ice (heat flux, energy transport), which was transferred to short-term ice forecasting in GLCFS 5-lake FVCOM-ice model was implemented and refined to the entire Great Lakes for investigate seasonal and interannual variability, which will be transferred to nowcast/forecast system for NOS, and seasonal projection of lake ice cover at GLERL Arctic teleconnection patterns, DA and AO, are the major forcing to the Arctic sea ice, while AO is also the major forcing to the Great Lakes ice cover. The Northern Sea Route opening and closing are more closely correlated with DA than AO Develop Coupled Ice-Ocean Model (CIOM) and coupled (ice-ocean) Physical-Ecosystem Model (PhEcoM) in the Bering-Beaufort-Chukchi Seas and the Arctic Ocean for application and prediction in the near future

14/15 IPEMF | Great Lakes Ice & Climate Research Future Efforts Continue to update the climate ice database for research and applications by the Great Lakes community, and to provide seasonal forecast of lake ice Run GL-FVCOM-Ice from 1993-present and validate the model using observation data Seasonal forecast/projection of lake ice using GL-FVCOM-Ice Transition of GL-FVCOM-Ice to NOS/CO-OPS for short-term operational prediction (with Anderson) Coupled GL-FVCOM-Ice with GL-WRF (with Lofgren) Implement FVCOM-Ice to the Arctic Ocean (with CILER)

IPEMF | Great Lakes Ice & Climate Research Questions? 2015/16 winter: Projected: 31% Observed: 34% 15/15

Technical readiness level of IPEMF research to application (R2A) products IPEMF | Great Lakes Ice & Climate Research Seasonal Regression Forecast Model for all Great Lakes Ice Cover: 7 Additional Information

Technical readiness level of IPEMF research to operation (R2O) products IPEMF | Great Lakes Ice & Climate Research Additional Information