Scientists and engineers have observed for some time that tidal amplitudes at many
locations are shifting considerably due to nonastronomical factors. Here we review …

Tidal rivers are a vital and little studied nexus between physical oceanography and
hydrology. It is only in the last few decades that substantial research efforts have been …

Tides are changing worldwide at rates not explained by astronomical forcing. Rather, the
observed evolution of tides and other long waves, such as storm surges, is influenced by …

River‐tide dynamics remain poorly understood, in part because conventional harmonic
analysis (HA) does not cope effectively with nonstationary signals. To explore nonstationary …

Effective conservation and restoration of estuarine wetlands require accurate maps of their
historical and current extent, as well as estimated losses of these valued habitats. Existing …

Numerous tidal phenomena, including river tides, internal tides, and tides in ice‐covered
bay, are nonstationary, which pose a great challenge for traditional tidal analysis methods …

This perspective discusses the importance of characterizing, quantifying, and accounting for
various sources of uncertainties involved in different layers of hydrometeorological and …

Since the late nineteenth century, channel depths have more than doubled in parts of New
York Harbor and the tidal Hudson River, wetlands have been reclaimed and navigational …

Tides in fluvial estuaries are distorted by non-stationary river discharge, which makes the
analysis of estuarine water levels less accurate when using the conventional tidal analysis …

How an estuary responds to sea level rise (SLR) is complex and depends on energy drivers
(eg, tides and river inflows), estuarine geometry (eg, length and depth), intrinsic fluid …