Spatial Structure and Long-Term Variations of The Ground-Level Temperature Variance

The global distribution of the ground-level temperature variance and its long-term variations have been investigated on the basis of the monthly mean temperature anomalies, obtained from ground-based and sea-borne meteorological observations from 1896 to 1990. Particular characteristics of the large...

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Main Authors: Kishcha, P. V., Dmitrieva, I. V.
Format: Article in Journal/Newspaper
Language:unknown
Subjects:
Online Access:https://kramerius.lib.cas.cz/view/uuid:dda0972e-5637-4fc0-b682-b47f2b72a68f
https://doi.org/10.1023/A:1023349105590
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author Kishcha, P. V.
Dmitrieva, I. V.
author_facet Kishcha, P. V.
Dmitrieva, I. V.
author_sort Kishcha, P. V.
collection Czech Academy of Sciences: dKNAV
description The global distribution of the ground-level temperature variance and its long-term variations have been investigated on the basis of the monthly mean temperature anomalies, obtained from ground-based and sea-borne meteorological observations from 1896 to 1990. Particular characteristics of the large-scale structure of the temperature variance have been found. There are three pronounced maxima in the global distribution of the temperature variance: in Central Siberia (60°≤φ≤75°N and 70°≤λ≤ 120°E), North America (60°≤φ≤75°N and −170°≤λ≤−120°E) and the Antarctica (50°≤φ≤65°S and −60°≤λ≤10°E, where φ and λ are the geographic latitude and longitude, respectively) and there are two minima: over the Atlantic and Pacific Ocean areas. The minimum over the Pacific is not as pronounced, as over the Atlantic. The spatial pattern of the ground-level temperature variance is, on the whole, stable, the positions of the zones of extrema remaining practically unchanged over a long time interval. These results indirectly corroborate the mechanism of solar impact on the properties of the low atmosphere by the modulation of the flux of galactic cosmic rays. The mechanism accounts for the spatial distribution of the temperature variance as a result of combined effect of solar activity and ocean. Long-term variations of the Siberian maximum of the ground-level temperature variance agree with the changing duration of the sunspot cycle, in contrast to the North American maximum.
format Article in Journal/Newspaper
genre Antarc*
Antarctica
Siberia
genre_facet Antarc*
Antarctica
Siberia
geographic Pacific
geographic_facet Pacific
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institution Open Polar
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op_collection_id ftczechacademysc
op_doi https://doi.org/10.1023/A:1023349105590
op_relation doi:https://doi.org/10.1023/A:1023349105590
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spelling ftczechacademysc:oai:kramerius.lib.cas.cz:uuid:dda0972e-5637-4fc0-b682-b47f2b72a68f 2025-03-16T15:16:27+00:00 Spatial Structure and Long-Term Variations of The Ground-Level Temperature Variance Kishcha, P. V. Dmitrieva, I. V. média svazek https://kramerius.lib.cas.cz/view/uuid:dda0972e-5637-4fc0-b682-b47f2b72a68f https://doi.org/10.1023/A:1023349105590 unknown doi:https://doi.org/10.1023/A:1023349105590 policy:private solar-terrestrial relations climate global distribution sunspot cycle length temperature scattering solar activity model:article ftczechacademysc https://doi.org/10.1023/A:1023349105590 2025-02-18T02:25:04Z The global distribution of the ground-level temperature variance and its long-term variations have been investigated on the basis of the monthly mean temperature anomalies, obtained from ground-based and sea-borne meteorological observations from 1896 to 1990. Particular characteristics of the large-scale structure of the temperature variance have been found. There are three pronounced maxima in the global distribution of the temperature variance: in Central Siberia (60°≤φ≤75°N and 70°≤λ≤ 120°E), North America (60°≤φ≤75°N and −170°≤λ≤−120°E) and the Antarctica (50°≤φ≤65°S and −60°≤λ≤10°E, where φ and λ are the geographic latitude and longitude, respectively) and there are two minima: over the Atlantic and Pacific Ocean areas. The minimum over the Pacific is not as pronounced, as over the Atlantic. The spatial pattern of the ground-level temperature variance is, on the whole, stable, the positions of the zones of extrema remaining practically unchanged over a long time interval. These results indirectly corroborate the mechanism of solar impact on the properties of the low atmosphere by the modulation of the flux of galactic cosmic rays. The mechanism accounts for the spatial distribution of the temperature variance as a result of combined effect of solar activity and ocean. Long-term variations of the Siberian maximum of the ground-level temperature variance agree with the changing duration of the sunspot cycle, in contrast to the North American maximum. Article in Journal/Newspaper Antarc* Antarctica Siberia Czech Academy of Sciences: dKNAV Pacific
spellingShingle solar-terrestrial relations
climate
global distribution
sunspot cycle length
temperature scattering
solar activity
Kishcha, P. V.
Dmitrieva, I. V.
Spatial Structure and Long-Term Variations of The Ground-Level Temperature Variance
title Spatial Structure and Long-Term Variations of The Ground-Level Temperature Variance
title_full Spatial Structure and Long-Term Variations of The Ground-Level Temperature Variance
title_fullStr Spatial Structure and Long-Term Variations of The Ground-Level Temperature Variance
title_full_unstemmed Spatial Structure and Long-Term Variations of The Ground-Level Temperature Variance
title_short Spatial Structure and Long-Term Variations of The Ground-Level Temperature Variance
title_sort spatial structure and long-term variations of the ground-level temperature variance
topic solar-terrestrial relations
climate
global distribution
sunspot cycle length
temperature scattering
solar activity
topic_facet solar-terrestrial relations
climate
global distribution
sunspot cycle length
temperature scattering
solar activity
url https://kramerius.lib.cas.cz/view/uuid:dda0972e-5637-4fc0-b682-b47f2b72a68f
https://doi.org/10.1023/A:1023349105590