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Meteorological conditions during the MosaiC expedition

Bibliographic Data

ID19568578
AuthorsAnnette Rinke (0000-0002-6685-9219, Alfred-Wegener-Institut Helmholtz-Zentrum für Polar- und Meeresforschung), John J Cassano (0000-0003-3176-3978, Cooperative Institute for Research in Environmental Sciences), Elizabeth N Cassano (0000-0003-2285-5969, Cooperative Institute for Research in Environmental Sciences), Ralf Jaiser (0000-0002-5685-9637, Alfred-Wegener-Institut Helmholtz-Zentrum für Polar- und Meeresforschung), Dörthe Handorf (0000-0002-3305-6882, Alfred-Wegener-Institut Helmholtz-Zentrum für Polar- und Meeresforschung)
Year2021
Volume9
Issue1
Publication date2021-07-22
Peer ReviewedYes
Open AccessYes
TypeARTICLE
VenueElementa Science of the Anthropocene (JOURNAL)
Journal identifiersISSN: 2325-1026 • E-ISSN: 2325-1026
PublisherUniversity of California Press (PUBLISHER • US)
DOI10.1525/elementa.2021.00023
OpenAlexW3186845291
LanguageEN
Citations received24
References cited20

This article sets the near-surface meteorological conditions during the Multidisciplinary drifting Observatory for the Study of Arctic Climate expedition in the context of the interannual variability and extremes within the past 4 decades. Hourly ERA5 reanalysis data for the Polarstern trajectory for 1979–2020 are analyzed. The conditions were relatively normal given that they were mostly within the interquartile range of the preceding 4 decades. Nevertheless, some anomalous and even record-breaking conditions did occur, particularly during synoptic events. Extreme cases of warm, moist air transported from the northern North Atlantic or northwestern Siberia into the Arctic were identified from late fall until early spring. Daily temperature and total column water vapor were classified as being among the top-ranking warmest/wettest days or even record-breaking based on the full record. Associated with this, the longwave radiative fluxes at the surface were extremely anomalous for these winter cases. The winter and spring period was characterized by more frequent storm events and median cyclone intensity ranking in the top 25th percentile of the full record. During summer, near melting point conditions were more than a month longer than usual, and the July and August 2020 mean conditions were the all-time warmest and wettest. These record conditions near the Polarstern were embedded in large positive temperature and moisture anomalies over the whole central Arctic. In contrast, unusually cold conditions occurred during the beginning of November 2019 and in early March 2020, related to the Arctic Oscillation. In March, this was linked with anomalously strong and persistent northerly winds associated with frequent cyclone occurrence to the southeast of the Polarstern

Arctic · Arctic oscillation · Atmospheric sciences · Climatology · North Atlantic oscillation · Northern Hemisphere · Arctic and Antarctic ice dynamics · Atmospheric chemistry and aerosols · Climate variability and models · Environmental Science · Geology · Oceanography

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    Open Access•Christopher J Cox, Amy Solomon et al.•Elementa Science of the…•2026

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    Open Access•Hélène Angot, Marion Réveillet et al.•Elementa Science of the…•2026

  • The winter central Arctic surface energy budget

    Open Access•Amy Solomon, Matthew D Shupe et al.•Elementa Science of the…•2023

  • Overview of the MosaiC expedition

    Open Access•Allison A Fong, Clara J M Hoppe et al.•Elementa Science of the…•2024

  • Evolution of the microstructure and reflectance of the surface scattering layer on melting, level Arctic sea ice

    Open Access•Amy R Macfarlane, Ruzica Dadic et al.•Elementa Science of the…•2023

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    Open Access•Benjamin Rabe, Céline Heuzé et al.•Elementa Science of the…•2022

  • A model-based study of the dynamics of Arctic low-level jet events for the MosaiC drift

    Open Access•Günther Heinemann, Lukas Schefczyk et al.•Elementa Science of the…•2024

  • Tethered balloon-borne profile measurements of atmospheric properties in the cloudy atmospheric boundary layer over the Arctic sea ice during MosaiC

    Open Access•Michael Lonardi, Christian Pilz et al.•Elementa Science of the…•2022

  • Arctic surface snow interactions with the atmosphere

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    Open Access•Johannes G M Barten, L Ganzeveld et al.•Elementa Science of the…•2023

  • Different mechanisms of Arctic first-year sea-ice ridge consolidation observed during the MosaiC expedition

    Open Access•Evgenii Salganik, Benjamin Allen Lange et al.•Elementa Science of the…•2023

  • Surface temperature comparison of the Arctic winter MosaiC observations, ERA5 reanalysis, and Modis satellite retrieval

    Open Access•Lia Herrmannsdörfer, Malte Müller et al.•Elementa Science of the…•2023

  • Tara Polaris

    Open Access•Julia Schmale, J Michel Flores et al.•Elementa Science of the…•2025

  • Characteristics and effects of aerosols during blowing snow events in the central Arctic

    Open Access•Nora Bergner, Benjamin Heutte et al.•Elementa Science of the…•2025

  • Warm air intrusions reaching the MosaiC expedition in April 2020—The Yopp targeted observing period (TOP)

    Open Access•Gunilla Svensson, Sonja Murto et al.•Elementa Science of the…•2023

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    Open Access•Matthew D Shupe, Markus Rex et al.•Elementa Science of the…•2022

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    Open Access•Ivo Beck, Alireza Moallemi et al.•Elementa Science of the…•2024

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    Open Access•Ian A Raphael, Donald K Perovich et al.•Elementa Science of the…•2024

  • The ERA5 global reanalysis

    Open Access•Hans Hersbach, Bill Bell et al.•Quarterly Journal of the Royal…•2020

  • Key indicators of Arctic climate change

    Open Access•Jason E Box, William Colgan et al.•Environmental Research Letters•2019

  • Changing state of Arctic sea ice across all seasons

    Open Access•Julienne Strœve, Dirk Notz•Environmental Research Letters•2018

Unique citing works24
Citations per year6
Citation span2022 - 2026 (5)
Citation velocitycurrent
Highly citedNo
Citation typesNeutral: 22

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