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MARC Record from Oregon Libraries

Record ID marc_oregon_summit_records/catalog_files/osu_bibs.mrc:646341153:2525
Source Oregon Libraries
Download Link /show-records/marc_oregon_summit_records/catalog_files/osu_bibs.mrc:646341153:2525?format=raw

LEADER: 02525nam a2200409Ia 4500
001 29191169
003 OR
003 OCoLC
008 931123s1993 maua b 000 0 eng d
035 $a10674893
040 $aCUS$cCUS
049 $aOREU$lmon$lbna
099 $aGC4$a.WHOI$aW2$ano.93-22
100 1 $aWhitehead, J. A.
245 12 $aA laboratory model of a cooled continental shelf /$cby J.A. Whitehead and Robert E. Frazel.
260 $aWoods Hole, Mass. :$bWoods Hole Oceanographic Institution,$c[1993].
300 $a41 p. :$bill. ;$c28 cm.
490 1 $aWHOI ;$v93-22.
500 $a"Technical report."
500 $a"June 1993."
500 $a"Funding was provided by the Office of Naval Research under contract no. N00014-89-J-1037."
504 $aIncludes bibliographical references (p. 33-34).
530 $aAlso issued online.
520 3 $aA laboratory model of wintertme cooling over a continental shelf has a water surface cooled by air in an annular rotating tank. A flat shallow outer "continental shelf" region is next to a conical "contiental slope" bottom and a flat "deep ocean" center. The shelf flow consists of cellular convection cells descending into a region with very complicated baroclinic eddies. Extremely pronounced fronts are found at the shelf break and over the slope. Associated with these are sizable geostrophic currents along the shelf and over shelf break contour. Eddies are particularly energetic there. Cooling rate is compared with temperature difference between "continental shelf" and "deep ocean". Scaling considerations produce an empirical best fit formula for temperature difference as a function of cooling rate. This produces a relatively straight regression line over a wide range of rotation rates, shelf depths and cooling rates. If this formula is valid for the ocean, water over continental shelves will be much colder due to constraints imposed by rotation of the earth than if the fluid were not rotating.
650 0 $aOcean-atmosphere interaction.
650 0 $aOcean circulation$xMeasurement.
650 0 $aFluid dynamics$xMathematical models.
700 1 $aFrazel, Robert E.
710 2 $aWoods Hole Oceanographic Institution.
830 0 $aWHOI (Series) ;$v93-22.
856 41 $uhttp://hdl.handle.net/1912/626$zConnect to this title online
907 $a.b16172292$bmulti$c-
902 $a070510
998 $b1$c981001$dm$ea$f-$g2
999 $a19931123111445.0
945 $lvge $aGC4$a.WHOI$aW2$d120007508340$e1$uno.93-22
945 $lngen $e1