(Table 1) Mean annual ground temperatures and description of permafrost boreholes in Russia


Autoria(s): Romanovsky, Vladimir E; Drozdov, DS; Oberman, Naum G; Malkova, GV; Kholodov, Alexander L; Marchenko, SS; Moskalenko, Nataliya G; Sergeev, DO; Ukraintseva, NG; Abramov, AA; Gilichinsky, David A; Vasiliev, Alexander A
Cobertura

MEDIAN LATITUDE: 67.163296 * MEDIAN LONGITUDE: 87.408109 * SOUTH-BOUND LATITUDE: 56.605500 * WEST-BOUND LONGITUDE: 54.482800 * NORTH-BOUND LATITUDE: 71.740000 * EAST-BOUND LONGITUDE: 161.392000 * MINIMUM DEPTH, sediment/rock: 5 m * MAXIMUM DEPTH, sediment/rock: 30 m

Data(s)

13/09/2010

Resumo

The results of the International Permafrost Association's International Polar Year Thermal State of Permafrost (TSP) project are presented based on field measurements from Russia during the IPY years (2007-09) and collected historical data. Most ground temperatures measured in existing and new boreholes show a substantial warming during the last 20 to 30 years. The magnitude of the warming varied with location, but was typically from 0.5°C to 2°C at the depth of zero annual amplitude. Thawing of Little Ice Age permafrost is ongoing at many locations. There are some indications that the late Holocene permafrost has begun to thaw at some undisturbed locations in northeastern Europe and northwest Siberia. Thawing of permafrost is most noticeable within the discontinuous permafrost domain. However, permafrost in Russia is also starting to thaw at some limited locations in the continuous permafrost zone. As a result, a northward displacement of the boundary between continuous and discontinuous permafrost zones was observed. This data set will serve as a baseline against which to measure changes of near-surface permafrost temperatures and permafrost boundaries, to validate climate model scenarios, and for temperature reanalysis.

Formato

text/tab-separated-values, 230 data points

Identificador

https://doi.pangaea.de/10.1594/PANGAEA.819291

doi:10.1594/PANGAEA.819291

Idioma(s)

en

Publicador

PANGAEA

Direitos

CC-BY: Creative Commons Attribution 3.0 Unported

Access constraints: unrestricted

Fonte

Supplement to: Romanovsky, Vladimir E; Drozdov, DS; Oberman, Naum G; Malkova, GV; Kholodov, Alexander L; Marchenko, SS; Moskalenko, Nataliya G; Sergeev, DO; Ukraintseva, NG; Abramov, AA; Gilichinsky, David A; Vasiliev, Alexander A (2010): Thermal state of permafrost in Russia. Permafrost and Periglacial Processes, 21(2), 136-155, doi:10.1002/ppp.683

Palavras-Chave #Area/locality; Bolvansky_51; Bolvansky_53; Bolvansky_54; Bolvansky_55; Bolvansky_56; Bolvansky_59; Bolvansky_60; Bolvansky_61; Bolvansky_65; Bolvansky_66; Bolvansky_83; DEPTH, sediment/rock; Description; Elevation of event; Event label; International Polar Year (2007-2008); IPY; Latitude of event; Longitude of event; Nadym_1; Nadym_11; Nadym_12; Nadym_14; Nadym_23; N-Yakutia_11-03; N-Yakutia_14_79; N-Yakutia_2-07; N-Yakutia_208; N-Yakutia_4-07; N-Yakutia_5_06; N-Yakutia_5-07; N-Yakutia_IV04; N-Yakutia_R33; N-Yakutia_Tiksi; PERM; Russia; Sample ID; Sampling permafrost; Temperature, ground, annual mean; Time coverage; Tr-Baykal_38; Tr-Baykal_6; Tr-Baykal_Most-1; Urengoy_15-03; Urengoy_15-06; Urengoy_15-08; Urengoy_15-20; Urengoy_15-21; Urengoy_5-01; Urengoy_5-08; Urengoy_5-09; Urengoy_5-25; Urengoy_5-28; Vorkuta_BK-1615; Vorkuta_DS-3; Vorkuta_KT-3b; Vorkuta_P-57; Vorkuta_P-92; Vorkuta_YA-1; Vorkuta_ZS-124
Tipo

Dataset