The contribution of various forcing sources to the mixed layer depth (MLD) growth during winter in the North Pacific was investigated by analyzing the Simple Ocean Data Assimilation and NCEP/NCAR reanalysis data during 1959-2004. It was found that the MLD growth can be mainly estimated from the heat budget analysis in the mixed layer, in which both the surface heat flux and the ocean heat transport are included. The remaining difference is explained in terms of the effects of entrainment by wind stress and the error in determining MLD due to a diffused thermocline. The contribution to the heat budget from the ocean heat transport is positive in the Kuroshio region owing to geostrophic advection and eddy diffusion, but in the outer ocean it ...
The effect of ocean mixed layer depth on climate is explored in a suite of slab ocean aquaplanet sim...
The warming climate influences the ocean by changing its wind‐driven dynamics and by inputting extra...
Supplemental information related to this paper is available at the Journals Online website: http://d...
Seasonal variations of the upper ocean, such as mixed layer depth (MLD) and sea surface temperature ...
It is investigated how the changes of winter sea surface temperature (SST) and mixed layer depth (ML...
Characteristics of the oceanic mixed layer over the North Pacific were examined utilizing a number o...
The causes of decadal variations of North Pacific sea surface temperatures (SSTs) are examined using...
In this study, we examine the physical processes of the response of sea surface temperature (SST) in...
In situ temperature and altimetrically derived sea surface height data are used to investigate the l...
It is investigated how the Pacific Decadal Oscillation (PDO) is simulated differently among various ...
This study examines a possible mechanism for the North Pacific regime shift in the winter of 1998/19...
A new monthly uniformly gridded analysis of mixed layer properties based on the World Ocean Atlas 20...
We present an observation-based heat budget analysis for seasonal and interannual variations of ocea...
Ocean General Circulation Models (OGCMs) are very useful tools to analyze and quantify heat budget t...
International audienceOcean General Circulation Models (OGCMs) are very useful tools to analyze and ...
The effect of ocean mixed layer depth on climate is explored in a suite of slab ocean aquaplanet sim...
The warming climate influences the ocean by changing its wind‐driven dynamics and by inputting extra...
Supplemental information related to this paper is available at the Journals Online website: http://d...
Seasonal variations of the upper ocean, such as mixed layer depth (MLD) and sea surface temperature ...
It is investigated how the changes of winter sea surface temperature (SST) and mixed layer depth (ML...
Characteristics of the oceanic mixed layer over the North Pacific were examined utilizing a number o...
The causes of decadal variations of North Pacific sea surface temperatures (SSTs) are examined using...
In this study, we examine the physical processes of the response of sea surface temperature (SST) in...
In situ temperature and altimetrically derived sea surface height data are used to investigate the l...
It is investigated how the Pacific Decadal Oscillation (PDO) is simulated differently among various ...
This study examines a possible mechanism for the North Pacific regime shift in the winter of 1998/19...
A new monthly uniformly gridded analysis of mixed layer properties based on the World Ocean Atlas 20...
We present an observation-based heat budget analysis for seasonal and interannual variations of ocea...
Ocean General Circulation Models (OGCMs) are very useful tools to analyze and quantify heat budget t...
International audienceOcean General Circulation Models (OGCMs) are very useful tools to analyze and ...
The effect of ocean mixed layer depth on climate is explored in a suite of slab ocean aquaplanet sim...
The warming climate influences the ocean by changing its wind‐driven dynamics and by inputting extra...
Supplemental information related to this paper is available at the Journals Online website: http://d...