Numerical modeling has emerged over the last several decades as a widely accepted tool
for investigations in environmental sciences. In estuarine research, hydrodynamic and …

There are increasing concerns about the impact of worsened physical condition on hypoxia
in a variety of coastal systems, especially considering the influence of changing climate. In …

Subsurface impacts associated with Marine Heatwaves (MHWs) in estuaries are not well
understood, largely due to data scarcity. Using over three decades (1986–2021) of …

Abstract The Regional Ocean Modeling System (ROMS) was coupled to a biogeochemical
model (RCA) to understand the controls on dissolved oxygen (O 2) depletion in Chesapeake …

Assessing climate change (CC) impacts on urban watersheds is difficult due to differences in
model spatial and temporal scales, making prediction of hydrologic restoration a challenge …

Chronic seasonal low oxygen condition (hypoxia) occurs in the deep waters of Chesapeake
Bay as a result of eutrophication-induced phytoplankton blooms and their subsequent …

Hypoxia is a big concern in coastal waters as it affects ecosystem health, fishery yield, and
marine water resources. Accurately modeling coastal hypoxia is still very challenging even …

Rainwater harvesting (RWH) systems recycle runoff, increasing the sustainability of water
supplies; they may also reduce runoff discharges, and thus help meet water quality …

Estuaries are productive and ecologically important ecosystems, incorporating
environmental drivers from watersheds, rivers, and the coastal ocean. Climate change has …

A numerical circulation model with a very simple representation of dissolved oxygen
dynamics is used to simulate hypoxia in Chesapeake Bay for the 30‐yr period 1984–2013 …