Atmospheric Dynamics Patterns in Southern Central Asia Since 800 ka Revealed by Loess‐Paleosol Sequences in Tajikistan

The atmospheric mechanisms responsible for the loess grain‐size variations in central Asia are less clear, and an increasing number of studies have found that the coarse‐grained component is likely supplied by the surface circulation rather than by the westerlies (westerlies circulation). In this st...

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Veröffentlicht in:Geophysical research letters 2020-09, Vol.47 (17), p.n/a
Hauptverfasser: Lu, Hao, Jia, Jia, Yin, Qiuzhen, Xia, Dunsheng, Gao, Fuyuan, Liu, Hao, Fan, Yijiao, Li, Zaijun, Wang, Xin, Berger, André, Oimuhammadzoda, Ilhomjon, Gadoev, Mustafo
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container_issue 17
container_start_page
container_title Geophysical research letters
container_volume 47
creator Lu, Hao
Jia, Jia
Yin, Qiuzhen
Xia, Dunsheng
Gao, Fuyuan
Liu, Hao
Fan, Yijiao
Li, Zaijun
Wang, Xin
Berger, André
Oimuhammadzoda, Ilhomjon
Gadoev, Mustafo
description The atmospheric mechanisms responsible for the loess grain‐size variations in central Asia are less clear, and an increasing number of studies have found that the coarse‐grained component is likely supplied by the surface circulation rather than by the westerlies (westerlies circulation). In this study, we attempt to determine the atmospheric dynamics patterns in the Afghan‐Tajik Basin during the past 800 kyr, based on the coarse grain‐size fraction of loess, combined with a study of modern dust transport processes. We suggest that the coarse grain‐size fraction can be used to indicate the intensity of near‐surface winds, while on glacial‐interglacial time scales, the variations of loess grain size in Tajikistan are dominated by Northern Hemisphere ice volume via its effect on the strength of the Siberian High. In addition, we suggest that atmospheric greenhouse gases concentration affected the loess grain size during interglacials via their influence on the temperature of southern high latitudes. Plain Language Summary Arid central Asia (ACA) is an important area of eolian dust emission and deposition. The Tajikistan loess sequences are the oldest loess deposits found so far in central Asia and are an important archive of information about the development of climate and atmospheric circulation in central Asia. However, the implications of grain‐size variations of the central Asian loess for climate change and atmospheric dust transport are controversial. Based on the coarse (>25 μm) grain‐size fraction of loess, combined with a study of modern dust transport, we find that the variations of the grain size of the Tajikistan loess on glacial‐interglacial time scales were dominated by changes in Northern Hemisphere ice volume (NHIV) during the last 800 kyr. However, atmospheric greenhouse gases (GHGs) concentrations may affect the loess grain size during interglacials via their influence on the temperature of southern high latitudes, which may help us understand dust activity against the background of global warming. Key Points The grain‐size distribution of loess in Tajikistan is mainly determined by changes in the dynamics of near‐surface winds Variations of the grain size on glacial‐interglacial time scales were dominated by changes in Northern Hemisphere ice volume Atmospheric greenhouse gases may have affected grain‐size variability during interglacials via control on southern high‐latitude temperature
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In this study, we attempt to determine the atmospheric dynamics patterns in the Afghan‐Tajik Basin during the past 800 kyr, based on the coarse grain‐size fraction of loess, combined with a study of modern dust transport processes. We suggest that the coarse grain‐size fraction can be used to indicate the intensity of near‐surface winds, while on glacial‐interglacial time scales, the variations of loess grain size in Tajikistan are dominated by Northern Hemisphere ice volume via its effect on the strength of the Siberian High. In addition, we suggest that atmospheric greenhouse gases concentration affected the loess grain size during interglacials via their influence on the temperature of southern high latitudes. Plain Language Summary Arid central Asia (ACA) is an important area of eolian dust emission and deposition. The Tajikistan loess sequences are the oldest loess deposits found so far in central Asia and are an important archive of information about the development of climate and atmospheric circulation in central Asia. However, the implications of grain‐size variations of the central Asian loess for climate change and atmospheric dust transport are controversial. Based on the coarse (&gt;25 μm) grain‐size fraction of loess, combined with a study of modern dust transport, we find that the variations of the grain size of the Tajikistan loess on glacial‐interglacial time scales were dominated by changes in Northern Hemisphere ice volume (NHIV) during the last 800 kyr. However, atmospheric greenhouse gases (GHGs) concentrations may affect the loess grain size during interglacials via their influence on the temperature of southern high latitudes, which may help us understand dust activity against the background of global warming. Key Points The grain‐size distribution of loess in Tajikistan is mainly determined by changes in the dynamics of near‐surface winds Variations of the grain size on glacial‐interglacial time scales were dominated by changes in Northern Hemisphere ice volume Atmospheric greenhouse gases may have affected grain‐size variability during interglacials via control on southern high‐latitude temperature</description><identifier>ISSN: 0094-8276</identifier><identifier>EISSN: 1944-8007</identifier><identifier>DOI: 10.1029/2020GL088320</identifier><language>eng</language><publisher>Washington: John Wiley &amp; Sons, Inc</publisher><subject>Arid regions ; Atmospheric circulation ; Atmospheric dynamics ; Atmospheric particulates ; Climate change ; Dust ; Dust emission ; Dust storms ; Dust transport ; Dynamics ; Eolian dust ; Gases ; Global warming ; Grain size ; Greenhouse effect ; Greenhouse gases ; Ice volume ; Interglacial periods ; Latitude ; Loess ; Northern Hemisphere ; Paleosols ; Particle size ; Siberian High ; Surface circulation ; Surface wind ; Temperature ; Time ; Transport ; Transport processes ; Variation ; Westerlies ; Winds</subject><ispartof>Geophysical research letters, 2020-09, Vol.47 (17), p.n/a</ispartof><rights>2020. American Geophysical Union. 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In this study, we attempt to determine the atmospheric dynamics patterns in the Afghan‐Tajik Basin during the past 800 kyr, based on the coarse grain‐size fraction of loess, combined with a study of modern dust transport processes. We suggest that the coarse grain‐size fraction can be used to indicate the intensity of near‐surface winds, while on glacial‐interglacial time scales, the variations of loess grain size in Tajikistan are dominated by Northern Hemisphere ice volume via its effect on the strength of the Siberian High. In addition, we suggest that atmospheric greenhouse gases concentration affected the loess grain size during interglacials via their influence on the temperature of southern high latitudes. Plain Language Summary Arid central Asia (ACA) is an important area of eolian dust emission and deposition. The Tajikistan loess sequences are the oldest loess deposits found so far in central Asia and are an important archive of information about the development of climate and atmospheric circulation in central Asia. However, the implications of grain‐size variations of the central Asian loess for climate change and atmospheric dust transport are controversial. Based on the coarse (&gt;25 μm) grain‐size fraction of loess, combined with a study of modern dust transport, we find that the variations of the grain size of the Tajikistan loess on glacial‐interglacial time scales were dominated by changes in Northern Hemisphere ice volume (NHIV) during the last 800 kyr. However, atmospheric greenhouse gases (GHGs) concentrations may affect the loess grain size during interglacials via their influence on the temperature of southern high latitudes, which may help us understand dust activity against the background of global warming. 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In this study, we attempt to determine the atmospheric dynamics patterns in the Afghan‐Tajik Basin during the past 800 kyr, based on the coarse grain‐size fraction of loess, combined with a study of modern dust transport processes. We suggest that the coarse grain‐size fraction can be used to indicate the intensity of near‐surface winds, while on glacial‐interglacial time scales, the variations of loess grain size in Tajikistan are dominated by Northern Hemisphere ice volume via its effect on the strength of the Siberian High. In addition, we suggest that atmospheric greenhouse gases concentration affected the loess grain size during interglacials via their influence on the temperature of southern high latitudes. Plain Language Summary Arid central Asia (ACA) is an important area of eolian dust emission and deposition. The Tajikistan loess sequences are the oldest loess deposits found so far in central Asia and are an important archive of information about the development of climate and atmospheric circulation in central Asia. However, the implications of grain‐size variations of the central Asian loess for climate change and atmospheric dust transport are controversial. Based on the coarse (&gt;25 μm) grain‐size fraction of loess, combined with a study of modern dust transport, we find that the variations of the grain size of the Tajikistan loess on glacial‐interglacial time scales were dominated by changes in Northern Hemisphere ice volume (NHIV) during the last 800 kyr. However, atmospheric greenhouse gases (GHGs) concentrations may affect the loess grain size during interglacials via their influence on the temperature of southern high latitudes, which may help us understand dust activity against the background of global warming. Key Points The grain‐size distribution of loess in Tajikistan is mainly determined by changes in the dynamics of near‐surface winds Variations of the grain size on glacial‐interglacial time scales were dominated by changes in Northern Hemisphere ice volume Atmospheric greenhouse gases may have affected grain‐size variability during interglacials via control on southern high‐latitude temperature</abstract><cop>Washington</cop><pub>John Wiley &amp; Sons, Inc</pub><doi>10.1029/2020GL088320</doi><tpages>10</tpages><orcidid>https://orcid.org/0000-0003-2025-6401</orcidid><orcidid>https://orcid.org/0000-0002-8157-393X</orcidid><orcidid>https://orcid.org/0000-0003-1563-2476</orcidid><orcidid>https://orcid.org/0000-0002-7189-8335</orcidid></addata></record>
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source Wiley Free Content; Wiley-Blackwell AGU Digital Library; Wiley Online Library Journals Frontfile Complete; Elektronische Zeitschriftenbibliothek - Frei zugängliche E-Journals
subjects Arid regions
Atmospheric circulation
Atmospheric dynamics
Atmospheric particulates
Climate change
Dust
Dust emission
Dust storms
Dust transport
Dynamics
Eolian dust
Gases
Global warming
Grain size
Greenhouse effect
Greenhouse gases
Ice volume
Interglacial periods
Latitude
Loess
Northern Hemisphere
Paleosols
Particle size
Siberian High
Surface circulation
Surface wind
Temperature
Time
Transport
Transport processes
Variation
Westerlies
Winds
title Atmospheric Dynamics Patterns in Southern Central Asia Since 800 ka Revealed by Loess‐Paleosol Sequences in Tajikistan
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