On the Mechanism of the Seasonal Variability of SST in the Tropical Indian Ocean

A general form of an equation that “explicitly” diagnoses SST change is derived. All other equations in wide use are its special case. Combining with the data from an ocean general circulation model (MOM2) with an integration of 10 years (1987-1996), the relative importances of various processes tha...

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Published inAdvances in atmospheric sciences Vol. 22; no. 3; pp. 451 - 462
Main Author 胡瑞金 刘秦玉 孟祥风 J.StuartGODFREY
Format Journal Article
LanguageEnglish
Published Dordrecht Springer Nature B.V 01.05.2005
Physical Oceanography Laboratory and Ocean-Atmosphere Interaction and Climate Laboratory,Ocean University of China, Qingdao 266003%CSIRO, Division of Marine Research, GPO Box 1538, Hobart, Tasmania, Australia
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ISSN0256-1530
1861-9533
DOI10.1007/BF02918758

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Abstract A general form of an equation that “explicitly” diagnoses SST change is derived. All other equations in wide use are its special case. Combining with the data from an ocean general circulation model (MOM2) with an integration of 10 years (1987-1996), the relative importances of various processes that determine seasonal variations of SST in the tropical Indian Ocean are compared mainly for January, April, July and October. The main results are as follows. (1) The net surface heat flux is the most important factor affecting SST over the Arabian Sea, the Bay of Bengal and the region south of the equator in January; in April, its influence covers ahnost the whole region studied; whereas in July and October, this term shows significance only in the regions south of 10°S and north of the equator, respectively. (2) The horizontal advection dominates in the East African-Arabian coast and the region around the equator in January and July; in October, the region is located south of 10°S. (3) The entrainment is significant only in a narrow band centered on 10~S in April and the coastal region around the Arabian Sea and the equator in July. (4) As for SST, it decreases in January and July but increases in April and October in the Arabian Sea and the Bay of Bengal, showing a (asymmetrical) semiannual variability; by contrast, the SST in the region south of the equator has an annual variability, decreasing in April and July and increasing in October and January.
AbstractList A general form of an equation that “explicitly” diagnoses SST change is derived. All other equations in wide use are its special case. Combining with the data from an ocean general circulation model (MOM2) with an integration of 10 years (1987–1996), the relative importances of various processes that determine seasonal variations of SST in the tropical Indian Ocean are compared mainly for January, April, July and October. The main results are as follows. (1) The net surface heat flux is the most important factor affecting SST over the Arabian Sea, the Bay of Bengal and the region south of the equator in January; in April, its influence covers almost the whole region studied; whereas in July and October, this term shows significance only in the regions south of 10°S and north of the equator, respectively. (2) The horizontal advection dominates in the East African-Arabian coast and the region around the equator in January and July; in October, the region is located south of 10°S. (3) The entrainment is significant only in a narrow band centered on 10° S in April and the coastal region around the Arabian Sea and the equator in July. (4) As for SST, it decreases in January and July but increases in April and October in the Arabian Sea and the Bay of Bengal, showing a (asymmetrical) semiannual variability; by contrast, the SST in the region south of the equator has an annual variability, decreasing in April and July and increasing in October and January.
A general form of an equation that "explicitly" diagnoses SST change is derived. All other equations in wide use are its special case. Combining with the data from an ocean general circulation model (MOM2) with an integration of 10 years (1987-1996), the relative importances of various processes that determine seasonal variations of SST in the tropical Indian Ocean are compared mainly for January, April, July and October. The main results are as follows. (1) The net surface heat flux is the most important factor affecting SST over the Arabian Sea, the Bay of Bengal and the region south of the equator in January; in April, its influence covers almost the whole region studied; whereas in July and October, this term shows significance only in the regions south of 10'S and north of the equator, respectively. (2) The horizontal advection dominates in the East African-Arabian coast and the region around the equator in January and July; in October, the region is located south of 10'S. (3) The entrainment is significant only in a narrow band centered on 10'S in April and the coastal region around the Arabian Sea and the equator in July. (4) As for SST, it decreases in January and July but increases in April and October in the Arabian Sea and the Bay of Bengal, showing a (asymmetrical) semiannual variability; by contrast, the SST in the region south of the equator has an annual variability, decreasing in April and July and increasing in October and January.
A general form of an equation that "explicitly" diagnoses SST change is derived. All other equations in wide use are its special case. Combining with the data from an ocean general circulation model (MOM2) with an integration of 10 years (1987-1996), the relative importances of various processes that determine seasonal variations of SST in the tropical Indian Ocean are compared mainly for January, April, July and October. The main results are as follows. (1) The net surface heat flux is the most important factor affecting SST over the Arabian Sea, the Bay of Bengal and the region south of the equator in January; in April, its influence covers almost the whole region studied; whereas in July and October, this term shows significance only in the regions south of 10°S and north of the equator, respectively. (2) The horizontal advection dominates in the East African-Arabian coast and the region around the equator in January and July; in October, the region is located south of 10°S. (3) The entrainment is significant only in a narrow band centered on 10° S in April and the coastal region around the Arabian Sea and the equator in July. (4) As for SST, it decreases in January and July but increases in April and October in the Arabian Sea and the Bay of Bengal, showing a (asymmetrical) semiannual variability; by contrast, the SST in the region south of the equator has an annual variability, decreasing in April and July and increasing in October and January.[PUBLICATION ABSTRACT]
A general form of an equation that "explicitly" diagnoses SST change is derived. All other equations in wide use are its special case. Combining with the data from an ocean general circulation model (MOM2) with an integration of 10 years (1987-1996), the relative importances of various processes that determine seasonal variations of SST in the tropical Indian Ocean are compared mainly for January, April, July and October. The main results are as follows. (1) The net surface heat flux is the most important factor affecting SST over the Arabian Sea, the Bay of Bengal and the region south of the equator in January; in April, its influence covers almost the whole region studied; whereas in July and October, this term shows significance only in the regions south of 10 degree S and north of the equator, respectively. (2) The horizontal advection dominates in the East African-Arabian coast and the region around the equator in January and July; in October, the region is located south of 10 degree S. (3) The entrainment is significant only in a narrow band centered on 10 degree S in April and the coastal region around the Arabian Sea and the equator in July. (4) As for SST, it decreases in January and July but increases in April and October in the Arabian Sea and the Bay of Bengal, showing a (asymmetrical) semiannual variability; by contrast, the SST in the region south of the equator has an annual variability, decreasing in April and July and increasing in October and January.
P4; A general form of an equation that "explicitly" diagnoses SST change is derived. All other equations in wide use are its special case. Combining with the data from an ocean general circulation model (MOM2)with an integration of 10 years (1987-1996), the relative importances of various processes that determine seasonal variations of SST in the tropical Indian Ocean are compared mainly for January, April, July and October. The main results are as follows. (1) The net surface heat flux is the most important factor affecting SST over the Arabian Sea, the Bay of Bengal and the region south of the equator in January; in April, its influence covers almost the whole region studied; whereas in July and October, this term shows significance only in the regions south of 10°S and north of the equator, respectively. (2) The horizontal advection dominates in the East African-Arabian coast and the region around the equator in January and July; in October, the region is located south of 10°S. (3) The entrainment is significant only in a narrow band centered on 10°S in April and the coastal region around the Arabian Sea and the equator in July. (4)As for SST, it decreases in January and July but increases in April and October in the Arabian Sea and the Bay of Bengal, showing a (asymmetrical) semiannual variability; by contrast, the SST in the region south of the equator has an annual variability, decreasing in April and July and increasing in October and January.
A general form of an equation that “explicitly” diagnoses SST change is derived. All other equations in wide use are its special case. Combining with the data from an ocean general circulation model (MOM2) with an integration of 10 years (1987-1996), the relative importances of various processes that determine seasonal variations of SST in the tropical Indian Ocean are compared mainly for January, April, July and October. The main results are as follows. (1) The net surface heat flux is the most important factor affecting SST over the Arabian Sea, the Bay of Bengal and the region south of the equator in January; in April, its influence covers ahnost the whole region studied; whereas in July and October, this term shows significance only in the regions south of 10°S and north of the equator, respectively. (2) The horizontal advection dominates in the East African-Arabian coast and the region around the equator in January and July; in October, the region is located south of 10°S. (3) The entrainment is significant only in a narrow band centered on 10~S in April and the coastal region around the Arabian Sea and the equator in July. (4) As for SST, it decreases in January and July but increases in April and October in the Arabian Sea and the Bay of Bengal, showing a (asymmetrical) semiannual variability; by contrast, the SST in the region south of the equator has an annual variability, decreasing in April and July and increasing in October and January.
Author 胡瑞金 刘秦玉 孟祥风 J.StuartGODFREY
AuthorAffiliation CSIRO,DivisionofMarineResearch,GPOBox1538,Hobart,Tasmania,Australia PhysicalOceanographyLaboratoryandOcean-AtmosphereInteractionandClimateLaboratory,OceanUniversityofChina,Qingdao266003
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PublicationPlace Dordrecht
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PublicationTitle Advances in atmospheric sciences
PublicationTitleAlternate Advances in Atmospheric Sciences
PublicationTitle_FL ADVANCES IN ATMOSPHERIC SCIENCES
PublicationYear 2005
Publisher Springer Nature B.V
Physical Oceanography Laboratory and Ocean-Atmosphere Interaction and Climate Laboratory,Ocean University of China, Qingdao 266003%CSIRO, Division of Marine Research, GPO Box 1538, Hobart, Tasmania, Australia
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– name: Physical Oceanography Laboratory and Ocean-Atmosphere Interaction and Climate Laboratory,Ocean University of China, Qingdao 266003%CSIRO, Division of Marine Research, GPO Box 1538, Hobart, Tasmania, Australia
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Snippet A general form of an equation that “explicitly” diagnoses SST change is derived. All other equations in wide use are its special case. Combining with the data...
A general form of an equation that "explicitly" diagnoses SST change is derived. All other equations in wide use are its special case. Combining with the data...
P4; A general form of an equation that "explicitly" diagnoses SST change is derived. All other equations in wide use are its special case. Combining with the...
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SubjectTerms Advection
Annual variations
Atmospheric circulation
Coastal zone
Entrainment
Equator
Equatorial regions
General circulation models
Heat flux
Heat transfer
Horizontal advection
Marine
Meteorology
Ocean circulation
Ocean-atmosphere interaction
Oceanic general circulation model
Oceans
Sea surface
Seasonal variability
Seasonal variation
Seasonal variations
SST
东亚季风
季节变化
海平面温度
热带印度洋
Title On the Mechanism of the Seasonal Variability of SST in the Tropical Indian Ocean
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