Impact of Ural Blocking on Winter Warm Arctic–Cold Eurasian Anomalies. Part II The Link to the North Atlantic Oscillation

In Part I of this study, the Ural blocking (UB)-induced amplification role of winter warm Arctic–cold Eurasian (WACE) anomalies has been examined. It was found that the long-lived UB together with the positive North Atlantic Oscillation (NAO⁺) significantly contributes to the amplification of the WA...

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Published inJournal of climate Vol. 29; no. 11; pp. 3949 - 3971
Main Authors Luo, Dehai, Xiao, Yiqing, Diao, Yina, Dai, Aiguo, Franzke, Christian L. E., Simmonds, Ian
Format Journal Article
LanguageEnglish
Published Boston American Meteorological Society 01.06.2016
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Abstract In Part I of this study, the Ural blocking (UB)-induced amplification role of winter warm Arctic–cold Eurasian (WACE) anomalies has been examined. It was found that the long-lived UB together with the positive North Atlantic Oscillation (NAO⁺) significantly contributes to the amplification of the WACE pattern. The present study examines how the UB variability affects quasi-biweekly WACE (QB-WACE) anomalies and depends on the NAO⁺ and North Atlantic conditions by classifying the UB based on a case study of a cold event that occurred over southern China in January 2008. A composite analysis during 1979–2013 shows that the QB-WACE anomalies associated with the UB that often occur with the NAO⁺ are strong and influenced by the North Atlantic jet (NAJ) and zonal wind strengths over Eurasia. For NAO⁺-related UB, the QB-WACE anomaly depends strongly on the location of UB, and the UB anomalies lag the NAO⁺ by approximately 4–7 days. The strength of the NAJ determines whether the combined NAO⁺ and UB anomalies exhibit a negative East Atlantic/West Russia (EA/WR⁻) pattern, while the region of weak zonal winds over Eurasia and the zonal extent of the NAJ dominate the location of UB. For southward-, eastward-, and westward-displaced UBs associated with a strong NAJ, the NAO⁺ favors the UB with a southward-displaced QB-WACE anomaly through wave train propagation like an EA/WR⁻ pattern. Eastward- and southward-displaced UB anomalies induce similarly displaced cold anomalies with intrusion into southern China. However, for a northward-displaced UB, this happens without pronounced EA/WR⁻ patterns because of a weak NAJ and is accompanied by a northward-displaced QB-WACE anomaly.
AbstractList In Part I of this study, the Ural blocking (UB)-induced amplification role of winter warm Arctic–cold Eurasian (WACE) anomalies has been examined. It was found that the long-lived UB together with the positive North Atlantic Oscillation (NAO+) significantly contributes to the amplification of the WACE pattern. The present study examines how the UB variability affects quasi-biweekly WACE (QB-WACE) anomalies and depends on the NAO+ and North Atlantic conditions by classifying the UB based on a case study of a cold event that occurred over southern China in January 2008. A composite analysis during 1979–2013 shows that the QB-WACE anomalies associated with the UB that often occur with the NAO+ are strong and influenced by the North Atlantic jet (NAJ) and zonal wind strengths over Eurasia. For NAO+-related UB, the QB-WACE anomaly depends strongly on the location of UB, and the UB anomalies lag the NAO+ by approximately 4–7 days.The strength of the NAJ determines whether the combined NAO+ and UB anomalies exhibit a negative East Atlantic/West Russia (EA/WR−) pattern, while the region of weak zonal winds over Eurasia and the zonal extent of the NAJ dominate the location of UB. For southward-, eastward-, and westward-displaced UBs associated with a strong NAJ, the NAO+ favors the UB with a southward-displaced QB-WACE anomaly through wave train propagation like an EA/WR− pattern. Eastward- and southward-displaced UB anomalies induce similarly displaced cold anomalies with intrusion into southern China. However, for a northward-displaced UB, this happens without pronounced EA/WR− patterns because of a weak NAJ and is accompanied by a northward-displaced QB-WACE anomaly.
In Part I of this study, the Ural blocking (UB)-induced amplification role of winter warm Arctic–cold Eurasian (WACE) anomalies has been examined. It was found that the long-lived UB together with the positive North Atlantic Oscillation (NAO⁺) significantly contributes to the amplification of the WACE pattern. The present study examines how the UB variability affects quasi-biweekly WACE (QB-WACE) anomalies and depends on the NAO⁺ and North Atlantic conditions by classifying the UB based on a case study of a cold event that occurred over southern China in January 2008. A composite analysis during 1979–2013 shows that the QB-WACE anomalies associated with the UB that often occur with the NAO⁺ are strong and influenced by the North Atlantic jet (NAJ) and zonal wind strengths over Eurasia. For NAO⁺-related UB, the QB-WACE anomaly depends strongly on the location of UB, and the UB anomalies lag the NAO⁺ by approximately 4–7 days. The strength of the NAJ determines whether the combined NAO⁺ and UB anomalies exhibit a negative East Atlantic/West Russia (EA/WR⁻) pattern, while the region of weak zonal winds over Eurasia and the zonal extent of the NAJ dominate the location of UB. For southward-, eastward-, and westward-displaced UBs associated with a strong NAJ, the NAO⁺ favors the UB with a southward-displaced QB-WACE anomaly through wave train propagation like an EA/WR⁻ pattern. Eastward- and southward-displaced UB anomalies induce similarly displaced cold anomalies with intrusion into southern China. However, for a northward-displaced UB, this happens without pronounced EA/WR⁻ patterns because of a weak NAJ and is accompanied by a northward-displaced QB-WACE anomaly.
Abstract In Part I of this study, the Ural blocking (UB)-induced amplification role of winter warm Arctic–cold Eurasian (WACE) anomalies has been examined. It was found that the long-lived UB together with the positive North Atlantic Oscillation (NAO + ) significantly contributes to the amplification of the WACE pattern. The present study examines how the UB variability affects quasi-biweekly WACE (QB-WACE) anomalies and depends on the NAO + and North Atlantic conditions by classifying the UB based on a case study of a cold event that occurred over southern China in January 2008. A composite analysis during 1979–2013 shows that the QB-WACE anomalies associated with the UB that often occur with the NAO + are strong and influenced by the North Atlantic jet (NAJ) and zonal wind strengths over Eurasia. For NAO + -related UB, the QB-WACE anomaly depends strongly on the location of UB, and the UB anomalies lag the NAO + by approximately 4–7 days. The strength of the NAJ determines whether the combined NAO + and UB anomalies exhibit a negative East Atlantic/West Russia (EA/WR − ) pattern, while the region of weak zonal winds over Eurasia and the zonal extent of the NAJ dominate the location of UB. For southward-, eastward-, and westward-displaced UBs associated with a strong NAJ, the NAO + favors the UB with a southward-displaced QB-WACE anomaly through wave train propagation like an EA/WR − pattern. Eastward- and southward-displaced UB anomalies induce similarly displaced cold anomalies with intrusion into southern China. However, for a northward-displaced UB, this happens without pronounced EA/WR − patterns because of a weak NAJ and is accompanied by a northward-displaced QB-WACE anomaly.
In Part I of this study, the Ural blocking (UB)-induced amplification role of winter warm Arctic-cold Eurasian (WACE) anomalies has been examined. It was found that the long-lived UB together with the positive North Atlantic Oscillation (NAO super(+)) significantly contributes to the amplification of the WACE pattern. The present study examines how the UB variability affects quasi-biweekly WACE (QB-WACE) anomalies and depends on the NAO super(+) and North Atlantic conditions by classifying the UB based on a case study of a cold event that occurred over southern China in January 2008. A composite analysis during 1979-2013 shows that the QB-WACE anomalies associated with the UB that often occur with the NAO super(+) are strong and influenced by the North Atlantic jet (NAJ) and zonal wind strengths over Eurasia. For NAO super(+)-related UB, the QB-WACE anomaly depends strongly on the location of UB, and the UB anomalies lag the NAO super(+) by approximately 4-7 days. The strength of the NAJ determines whether the combined NAO super(+) and UB anomalies exhibit a negative East Atlantic/West Russia (EA/WR super(-)) pattern, while the region of weak zonal winds over Eurasia and the zonal extent of the NAJ dominate the location of UB. For southward-, eastward-, and westward-displaced UBs associated with a strong NAJ, the NAO super(+) favors the UB with a southward-displaced QB-WACE anomaly through wave train propagation like an EA/WR super(-) pattern. Eastward- and southward-displaced UB anomalies induce similarly displaced cold anomalies with intrusion into southern China. However, for a northward-displaced UB, this happens without pronounced EA/WR super(-) patterns because of a weak NAJ and is accompanied by a northward-displaced QB-WACE anomaly.
In Part I of this study, the Ural blocking (UB)-induced amplification role of winter warm Arctic-cold Eurasian (WACE) anomalies has been examined. It was found that the long-lived UB together with the positive North Atlantic Oscillation (NAO^sup +^) significantly contributes to the amplification of the WACE pattern. The present study examines how the UB variability affects quasi-biweekly WACE (QB-WACE) anomalies and depends on the NAO^sup +^ and North Atlantic conditions by classifying the UB based on a case study of a cold event that occurred over southern China in January 2008. A composite analysis during 1979-2013 shows that the QB-WACE anomalies associated with the UB that often occur with the NAO^sup +^ are strong and influenced by the North Atlantic jet (NAJ) and zonal wind strengths over Eurasia. For NAO^sup +^-related UB, the QB-WACE anomaly depends strongly on the location of UB, and the UB anomalies lag the NAO^sup +^ by approximately 4-7 days. The strength of the NAJ determines whether the combined NAO^sup +^ and UB anomalies exhibit a negative East Atlantic/West Russia (EA/WR^sup -^) pattern, while the region of weak zonal winds over Eurasia and the zonal extent of the NAJ dominate the location of UB. For southward-, eastward-, and westward-displaced UBs associated with a strong NAJ, the NAO^sup +^ favors the UB with a southward-displaced QB-WACE anomaly through wave train propagation like an EA/WR^sup -^ pattern. Eastward- and southward-displaced UB anomalies induce similarly displaced cold anomalies with intrusion into southern China. However, for a northward-displaced UB, this happens without pronounced EA/WR^sup -^ patterns because of a weak NAJ and is accompanied by a northward-displaced QB-WACE anomaly.
Author Xiao, Yiqing
Diao, Yina
Luo, Dehai
Simmonds, Ian
Franzke, Christian L. E.
Dai, Aiguo
Author_xml – sequence: 1
  givenname: Dehai
  surname: Luo
  fullname: Luo, Dehai
  organization: RCE-TEA, Institute of Atmospheric Physics, Chinese Academy of Sciences, Beijing, China
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  givenname: Yiqing
  surname: Xiao
  fullname: Xiao, Yiqing
  organization: Shanxi Meteorological Observatory, Xi’an, China
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  givenname: Yina
  surname: Diao
  fullname: Diao, Yina
  organization: Physical Oceanography Laboratory, Qingdao Collaborative Innovation Center of Marine Science and Technology, Ocean University of China, Qingdao, China
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  givenname: Aiguo
  surname: Dai
  fullname: Dai, Aiguo
  organization: National Center for Atmospheric Research, Boulder, Colorado
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  givenname: Christian L. E.
  surname: Franzke
  fullname: Franzke, Christian L. E.
  organization: Meteorological Institute, University of Hamburg, Hamburg, Germany
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  surname: Simmonds
  fullname: Simmonds, Ian
  organization: School of Earth Sciences, University of Melbourne, Melbourne, Victoria, Australia
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ContentType Journal Article
Copyright 2016 American Meteorological Society
Copyright American Meteorological Society Jun 1, 2016
Copyright American Meteorological Society 2016
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Snippet In Part I of this study, the Ural blocking (UB)-induced amplification role of winter warm Arctic–cold Eurasian (WACE) anomalies has been examined. It was found...
Abstract In Part I of this study, the Ural blocking (UB)-induced amplification role of winter warm Arctic–cold Eurasian (WACE) anomalies has been examined. It...
In Part I of this study, the Ural blocking (UB)-induced amplification role of winter warm Arctic-cold Eurasian (WACE) anomalies has been examined. It was found...
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StartPage 3949
SubjectTerms Amplification
Anomalies
Atmospheric forcing
Case studies
Classification
Cold
Displacement
Ice
Marine
North Atlantic Oscillation
Ocean-atmosphere system
Polar environments
Temperature
Ural blocking
Wave packets
Wave propagation
Wave trains
Winds
Winter
Zonal winds
Subtitle The Link to the North Atlantic Oscillation
Title Impact of Ural Blocking on Winter Warm Arctic–Cold Eurasian Anomalies. Part II
URI https://www.jstor.org/stable/26385489
https://www.proquest.com/docview/1790613561/abstract/
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