Classification of cryogenic-landslide landforms for mapping and prediction
https://doi.org/10.30758/0555-2648-2023-69-4-486-500
Abstract
A classification of cryogenic-landslide landforms is developed for mapping their distribution and dynamics. It is based on the previously suggested classification subdividing cryogenic landsliding into two main types: cryogenic translational landslides (or active-layer detachment slides), and cryogenic earth flows (or retrogressive thaw slumps). The increased proportion of retrogressive thaw slumps compared to active layer detachments in the North of West Siberia in the last decade creates the need for an expanded classification of cryogenic earth flows. One of the important issues is separating the process of landsliding and resulting landforms, which in English are covered by one term ‘retrogressive thaw slump’. In dealing with the landforms, we distinguish (1) open and (2) closed ones. Open cryogenic-landslide landforms are those formed by the retreating of the coast bluff due to the thaw of ice or ice-rich deposits with an additional impact from wave or stream action. Closed cryogenic-landslide landforms are those initiated on a slope landward, and thawed material is delivered to the coast or stream through an erosional channel. Morphologically we distinguish thermocirques and thermoterraces depending on the shape of the retreating headwall, crescent or linear, respectively. An important issue is the type of ground ice subjected to thaw: tabular, ice-wedge or constitutional ground ice are distinguished. Landforms can be active, stabilized or ancient. One can find both single landforms and their combination. The classification is based on a significant amount of field studies and interpretation of remote sensing data. Mapping of the cryogenic-landslide landforms is suggested using the proposed classification and indication features. The classification is based on the experience obtained mainly in the north of West Siberia. Applying it to other regions may require additional studies.
Keywords
About the Authors
M. O. LeibmanRussian Federation
Tyumen
A. I. Kizyakov
Russian Federation
Moscow
N. B. Nesterova
Russian Federation
Tyumen
Germany
I. I. Tarasevich
Russian Federation
Tyumen
Moscow
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Review
For citations:
Leibman M.O., Kizyakov A.I., Nesterova N.B., Tarasevich I.I. Classification of cryogenic-landslide landforms for mapping and prediction. Arctic and Antarctic Research. 2023;69(4):486-500. (In Russ.) https://doi.org/10.30758/0555-2648-2023-69-4-486-500