Decadal variability of northern Asian winter monsoon shaped by the 11-year solar cycle

Climate signals associated with 11-year sunspot cycle have been extensively studied in various regions of the northern hemisphere, but the precise mechanisms remain elusive. Asian winter monsoon (AWM) is the most powerful circulation system on the Earth, yet its relationship with the 11-year solar c...

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Published in:Climate Dynamics
Main Authors: Jin, Chunhan, Wang, Bin, Liu, Jian, Ning, Liang, Yan, Mi
Format: Report
Language:English
Published: SPRINGER 2019
Subjects:
Online Access:http://ir.ieecas.cn/handle/361006/12944
https://doi.org/10.1007/s00382-019-04945-4
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spelling ftchinacascieeca:oai:ir.ieecas.cn:361006/12944 2023-06-11T04:08:12+02:00 Decadal variability of northern Asian winter monsoon shaped by the 11-year solar cycle Jin, Chunhan Wang, Bin Liu, Jian Ning, Liang Yan, Mi 2019-12-01 http://ir.ieecas.cn/handle/361006/12944 https://doi.org/10.1007/s00382-019-04945-4 英语 eng SPRINGER CLIMATE DYNAMICS http://ir.ieecas.cn/handle/361006/12944 doi:10.1007/s00382-019-04945-4 11-year solar cycle Asian winter monsoon Decadal variation Arctic sea ice Arctic warming SUMMER MONSOON SEA-ICE CLIMATE PREDICTION SIGNALS NUMBER Meteorology & Atmospheric Sciences 期刊论文 2019 ftchinacascieeca https://doi.org/10.1007/s00382-019-04945-4 2023-05-08T13:24:14Z Climate signals associated with 11-year sunspot cycle have been extensively studied in various regions of the northern hemisphere, but the precise mechanisms remain elusive. Asian winter monsoon (AWM) is the most powerful circulation system on the Earth, yet its relationship with the 11-year solar cycle has not been explored. Here the response of AWM to the 11-year solar forcing is explored by analysis of numerical experiment results obtained from the Community Earth System Model-Last Millennium Ensemble (CESM-LME) modeling project. We show that a strong 11-year solar cycle can excite a resonant response of the intrinsic leading mode of the AWM variability, resulting in a significant signal of decadal variation. The leading mode, characterized by a warm Arctic and cold Siberia, responds to the maximum solar irradiance with a peculiar 3 to 4-year delay. We propose a new mechanism to explain this delayed response, in which the 11-year solar cycle affects the AWM via modulating Arctic sea ice variation during the preceding summer. At the peak of the accumulative solar irradiance (i.e., 4 years after the maximum solar irradiance), the Arctic sea ice concentration reaches a minimum over the Barents-Kara Sea region accompanied by an Arctic sea surface warming, which then persists into the following winter, causing Arctic high-pressure extend to the Ural mountain region, which enhances Siberian High and causes a bitter winter over the northern Asia. Report Arctic Kara Sea Sea ice Siberia Institute of Earth Environment: IEECAS OpenIR (Chinese Academy of Sciences) Arctic Kara Sea Climate Dynamics 53 11 6559 6568
institution Open Polar
collection Institute of Earth Environment: IEECAS OpenIR (Chinese Academy of Sciences)
op_collection_id ftchinacascieeca
language English
topic 11-year solar cycle
Asian winter monsoon
Decadal variation
Arctic sea ice
Arctic warming
SUMMER MONSOON
SEA-ICE
CLIMATE
PREDICTION
SIGNALS
NUMBER
Meteorology & Atmospheric Sciences
spellingShingle 11-year solar cycle
Asian winter monsoon
Decadal variation
Arctic sea ice
Arctic warming
SUMMER MONSOON
SEA-ICE
CLIMATE
PREDICTION
SIGNALS
NUMBER
Meteorology & Atmospheric Sciences
Jin, Chunhan
Wang, Bin
Liu, Jian
Ning, Liang
Yan, Mi
Decadal variability of northern Asian winter monsoon shaped by the 11-year solar cycle
topic_facet 11-year solar cycle
Asian winter monsoon
Decadal variation
Arctic sea ice
Arctic warming
SUMMER MONSOON
SEA-ICE
CLIMATE
PREDICTION
SIGNALS
NUMBER
Meteorology & Atmospheric Sciences
description Climate signals associated with 11-year sunspot cycle have been extensively studied in various regions of the northern hemisphere, but the precise mechanisms remain elusive. Asian winter monsoon (AWM) is the most powerful circulation system on the Earth, yet its relationship with the 11-year solar cycle has not been explored. Here the response of AWM to the 11-year solar forcing is explored by analysis of numerical experiment results obtained from the Community Earth System Model-Last Millennium Ensemble (CESM-LME) modeling project. We show that a strong 11-year solar cycle can excite a resonant response of the intrinsic leading mode of the AWM variability, resulting in a significant signal of decadal variation. The leading mode, characterized by a warm Arctic and cold Siberia, responds to the maximum solar irradiance with a peculiar 3 to 4-year delay. We propose a new mechanism to explain this delayed response, in which the 11-year solar cycle affects the AWM via modulating Arctic sea ice variation during the preceding summer. At the peak of the accumulative solar irradiance (i.e., 4 years after the maximum solar irradiance), the Arctic sea ice concentration reaches a minimum over the Barents-Kara Sea region accompanied by an Arctic sea surface warming, which then persists into the following winter, causing Arctic high-pressure extend to the Ural mountain region, which enhances Siberian High and causes a bitter winter over the northern Asia.
format Report
author Jin, Chunhan
Wang, Bin
Liu, Jian
Ning, Liang
Yan, Mi
author_facet Jin, Chunhan
Wang, Bin
Liu, Jian
Ning, Liang
Yan, Mi
author_sort Jin, Chunhan
title Decadal variability of northern Asian winter monsoon shaped by the 11-year solar cycle
title_short Decadal variability of northern Asian winter monsoon shaped by the 11-year solar cycle
title_full Decadal variability of northern Asian winter monsoon shaped by the 11-year solar cycle
title_fullStr Decadal variability of northern Asian winter monsoon shaped by the 11-year solar cycle
title_full_unstemmed Decadal variability of northern Asian winter monsoon shaped by the 11-year solar cycle
title_sort decadal variability of northern asian winter monsoon shaped by the 11-year solar cycle
publisher SPRINGER
publishDate 2019
url http://ir.ieecas.cn/handle/361006/12944
https://doi.org/10.1007/s00382-019-04945-4
geographic Arctic
Kara Sea
geographic_facet Arctic
Kara Sea
genre Arctic
Kara Sea
Sea ice
Siberia
genre_facet Arctic
Kara Sea
Sea ice
Siberia
op_relation CLIMATE DYNAMICS
http://ir.ieecas.cn/handle/361006/12944
doi:10.1007/s00382-019-04945-4
op_doi https://doi.org/10.1007/s00382-019-04945-4
container_title Climate Dynamics
container_volume 53
container_issue 11
container_start_page 6559
op_container_end_page 6568
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