His Medwin Prize Lecture (Vancouver Meeting) was titled «Acoustic explorations of
the upper ocean boundary layer.»
He received the Prize for «development of experimental techniques to probe
the upper ocean boundary layer.»
Not exact matches
As may be expected from the positions of
ocean currents, most mixing in the
upper layers of the
ocean takes place on the western
boundaries of
ocean gyres where the current speeds are greatest.
Thus, some heat gets converted to kinetic energy, but that gets converted back to heat, either by viscosity or by thermally - indirect circulations that produce APE while pulling heat downward in the process (LHSO: Ferrel cell (driven by extratropical storm track activity), Planetary - scale overturning in the stratosphere and mesosphere (includes Brewer - Dobson circulation (I'm not sure if the whole thing is the Brewer - Dobson circulation or if only part of it is)-RRB-, some motions in the
ocean; LVO: wind driven mixing of the
boundary layer and of the
upper ocean (though mixing itself tends to destroy the APE that the kinetic energy would create by forcing heat downward)-RRB-.
«The turbulent mixing in thin
ocean surface
boundary layers (OSBL), which occupy the
upper 100 m or so of the
ocean, control the exchange of heat and trace gases between the atmosphere and
ocean.»
By the way — the
upper 700 m «shallow»
ocean is referred to as shallow because it's typically the depth above the thermocline, traditionally considered the
boundary between shallow and deep regions.
Effects of hypoxia and
ocean acidification on the
upper thermal niche
boundaries of coral reef fishes.
(Fingerprint studies draw conclusions about human causation that can be deduced from: (a) how the Earth warms in the
upper and lower atmosphere, (b) warming in the
oceans, (c) night - time vs day - time temperature increases, (d) energy escaping from the
upper atmosphere versus energy trapped, (e) isotopes of CO2 in the atmosphere and coral that distinguish fossil CO2 from non-fossil CO2, (f) the height of the
boundary between the lower and
upper atmosphere, and (g) atmospheric oxygen levels decrease as CO2 levels increase.
If the subskin layer were first to dissipate and the
upper boundary of the
ocean bulk were to move up to meet the warmed skin layer then of course you would be right but that never happens.