Sabine Wulf

Dr. Sabine Wulf

Department of Geography, University of Portsmouth, Lion Terrace, Portsmouth, PO1 3HE, UK

Research Focus & Metrics

Academic Career Length

28Years (1999-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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1 August 1999 in Nature
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Journal Article
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JAJudy R. M. Allen
Judy R. M. Allen
UBUte Brandt
Ute Brandt
ABAchim Brauer
Achim Brauer
HHHans-Wolfgang Hubberten
Hans-Wolfgang Hubberten
BHBrian Huntley
Brian Huntley
Bernd ZolitschkaBernd Zolitschka
Bernd Zolitschka

1 January 2004 in Quaternary International
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Journal Article
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Sabine WulfSabine Wulf
Sabine Wulf
MKMichael Kraml
Michael Kraml
ABAchim Brauer
Achim Brauer
JKJörg Keller
Jörg Keller
JNJörg F.W. Negendank
Jörg F.W. Negendank

1 February 2011 in Quaternary Science Reviews
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Journal Article
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UMUlrich C. Müller
Ulrich C. Müller
JPJörg Pross
Jörg Pross
PTPolychronis C. Tzedakis
Polychronis C. Tzedakis
CGClive Gamble
Clive Gamble
UKUlrich Kotthoff
Ulrich Kotthoff
KCKimon Christanis
Kimon Christanis

9 January 2007 in Proceedings of the National Academy of Sciences
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Journal Article
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ABAchim Brauer
Achim Brauer
JAJudy R. M. Allen
Judy R. M. Allen
JMJens Mingram
Jens Mingram
PDPeter Dulski
Peter Dulski
Sabine WulfSabine Wulf
Sabine Wulf
BHBrian Huntley
Brian Huntley
Establishing phase relationships between earth-system components during periods of rapid global change is vital to understanding the underlying processes. It requires records of each component with independent and accurate chronologies. Until now, no continental record extending from the present to the penultimate glacial had such a chronology to our knowledge. Here, we present such a record from the annually laminated sediments of Lago Grande di Monticchio, southern Italy. Using this record we determine the duration (17.70 ± 0.20 ka) and age of onset (127.20 ± 1.60 ka B.P.) of the last interglacial, as reflected by terrestrial ecosystems. This record also reveals that the transitions at the beginning and end of the interglacial spanned only ≈100 and 150 years, respectively. Comparison with records of other earth-system components reveals complex leads and lags. During the penultimate deglaciation phase relationships are similar to those during the most recent deglaciation, peaks in Antarctic warming and atmospheric methane both leading Northern Hemisphere terrestrial warming. It is notable, however, that there is no evidence at Monticchio of a Younger Dryas-like oscillation during the penultimate deglaciation. Warming into the first major interstadial event after the last interglacial is characterized by markedly different phase relationships to those of the deglaciations, warming at Monticchio coinciding with Antarctic warming and leading the atmospheric methane increase. Diachroneity is seen at the end of the interglacial; several global proxies indicate progressive cooling after ≈115 ka B.P., whereas the main terrestrial response in the Mediterranean region is abrupt and occurs at 109.50 ± 1.40 ka B.P.

1 April 2007 in The Holocene
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THTorsten Haberzettl
Torsten Haberzettl
HCHugo Corbella
Hugo Corbella
MFMichael Fey
Michael Fey
SJStephanie Janssen
Stephanie Janssen
ALAndreas Lücke
Andreas Lücke
Bernd ZolitschkaBernd Zolitschka
Bernd Zolitschka
A high-resolution multiproxy geochemical approach was applied to the sediments of Laguna Potrok Aike in an attempt to reconstruct moist and dry periods during the past 16 000 years in southeastern Patagonia. The age—depth model is inferred from AMS 14C dates and tephrochronology, and suggests moist conditions during the Lateglacial and early Holocene (16 000—8700 cal. BP) interrupted by drier conditions before the beginning of the Holocene (13 200—11 400 cal. BP). Data also imply that this period was a major warm phase in southeastern Patagonia and was approximately contemporaneous with the Younger Dryas chronozone in the Northern Hemisphere (12 700—11 500 cal. BP). After 8650 cal. BP a major drought may have caused the lowest lake level of the record. Since 7300 cal. BP, the lake level rose and was variable until the `Little Ice Age', which was the dominant humid period after 8650 cal. BP.

1 December 2014 in Quaternary Science Reviews
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Journal Article
Closed access
AMAna Moreno
Ana Moreno
ASAnders Svensson
Anders Svensson
SBStephen J. Brooks
Stephen J. Brooks
SCSimon Connor
Simon Connor
SEStefan Engels
Stefan Engels
GZGiovanni Zanchetta
Giovanni Zanchetta