KeywordsLong Island Sound; New York/New Jersey Harbor Estuary; NYHOPS model; multi-decadal hydrodynamic hindcast; North American Regional Reanalysis; numerical modeling; tsunami currents; depth-averaged equation; benchmark; FVCOM-ICM; Chesapeake Bay; water quality; nutrient; phytoplankton; dissolved oxygen; numerical modeling; amplification; L-type basin; Rouse number; drag coefficient; wind stress; storm surge; estuarine and coastal modeling; hydrodynamic modeling; wave modeling; air-sea interaction; air-sea momentum flux; hurricane intensity; tropical cyclone; summer hypoxia/anoxia; wind speeds and directions; prolonged unidirectional wind; tides; tidal datum; uncertainty; VDatum; variational method; statistical interpolation; optimal interpolation; Chesapeake Bay; Delaware Bay; hydrodynamic modeling; tidal inlets; long-term morphological change; sediment transport; morphodynamic modeling; coastal inlet evolution; inundation damage; wave damage; sea level rise; damage functions; coastal resilience; numerical modeling; reproducibility; catalog services; data services; web services; metadata; ocean forecasting; ocean modeling; data management; data system; interoperability; OPeNDAP; THREDDS; CSW; Jupyter Notebooks; transport modeling; inverse modeling; bacterial loading estimation; traditional watershed modeling; tidal constituent database; WNAT region; ADCIRC; shallow water equations; GWCE; forward sensitivity method; data assimilation; Apalachicola Bay; salinity; oysters; model; Gulf of Maine; operational nowcast and forecast system; hydrodynamics; ROMS; water level; currents; water temperature; and salinity; VDatum; tidal datums; morphological changes; inlets; North Carolina; modeling; irradiance; oceans; phytoplankton; estuarine dynamics; numerical model; transport time; James River; dune erosion; coastal ponds; storm surge; coastal flooding; Baltic Sea; hydrodynamics; modeling; vertical structure; stratification; dicothermal; GEMSS; forecasting; storm surge; baroclinic; Florida
