The dissipation of wave energy in the marginal ice zone is often attributed to wave scattering and the dissipative mechanisms associated with the ice layer. In this study we present observations indicating that turbulence generated by the differential velocity between the sea ice cover and the orbital wave motion may be an important dissipative mechanism of wave energy. Through field measurements of under‐ice turbulence dissipation rates in pancake and frazil ice, it is shown that turbulence‐induced wave attenuation coefficients are in agreement with observed wave attenuation in the marginal ice zone. The results suggest that the turbulence‐induced attenuation rates can be parameterized by the characteristic wave properties and a coefficien...
The wave frequency and the physical properties of the ice cover determine the way in which waves pro...
The sensitivity of the rate of exponential decay of wave energy through the ice-covered oceans is in...
Increased knowledge about wave attenuation processes in sea ice, and hence atmosphere-wave-ice-ocean...
The dissipation of wave energy in the marginal ice zone is often attributed to wave scattering and t...
Abstract. Observations of wave dissipation and dispersion in sea ice are a necessity for the develop...
The polar oceans consist of open water, continuous ice covers and zones of broken ice floes of vario...
A laboratory experimental model of an incident ocean wave interacting with an ice floe is used to va...
Sea ice inhibits the development of wind‐generated surface gravity waves which are the dominant fact...
The dissipation of internal wave energy in the turbulent boundary layer under pack ice is determined...
The poorly understood attenuation of surface waves in sea ice is generally attributed to the combina...
International audienceThe poorly understood attenuation of surface waves in sea ice is generally att...
Wind waves may play an important role in the evolution of sea ice. That role is largely determined b...
In the winter, when the Antarctic sea ice cover is expanding, the far edge of the marginal ice zone ...
A physical model is discussed that mimics the interaction between ocean waves and a multitude of loo...
The wave frequency and the physical properties of the ice cover determine the way in which waves pro...
The sensitivity of the rate of exponential decay of wave energy through the ice-covered oceans is in...
Increased knowledge about wave attenuation processes in sea ice, and hence atmosphere-wave-ice-ocean...
The dissipation of wave energy in the marginal ice zone is often attributed to wave scattering and t...
Abstract. Observations of wave dissipation and dispersion in sea ice are a necessity for the develop...
The polar oceans consist of open water, continuous ice covers and zones of broken ice floes of vario...
A laboratory experimental model of an incident ocean wave interacting with an ice floe is used to va...
Sea ice inhibits the development of wind‐generated surface gravity waves which are the dominant fact...
The dissipation of internal wave energy in the turbulent boundary layer under pack ice is determined...
The poorly understood attenuation of surface waves in sea ice is generally attributed to the combina...
International audienceThe poorly understood attenuation of surface waves in sea ice is generally att...
Wind waves may play an important role in the evolution of sea ice. That role is largely determined b...
In the winter, when the Antarctic sea ice cover is expanding, the far edge of the marginal ice zone ...
A physical model is discussed that mimics the interaction between ocean waves and a multitude of loo...
The wave frequency and the physical properties of the ice cover determine the way in which waves pro...
The sensitivity of the rate of exponential decay of wave energy through the ice-covered oceans is in...
Increased knowledge about wave attenuation processes in sea ice, and hence atmosphere-wave-ice-ocean...