Recent progress in landslide dating

Recent progress of dating techniques has greatly improved the age determination of various types of landslides. Since the turn of the 21st century, the number of dated landslides throughout the world has increased several fold and the introduction of modern dating methods (e.g. cosmic ray exposure d...

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Published in:Progress in Physical Geography: Earth and Environment
Main Author: Pánek, Tomáš
Format: Article in Journal/Newspaper
Language:English
Published: SAGE Publications 2014
Subjects:
Online Access:http://dx.doi.org/10.1177/0309133314550671
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spelling crsagepubl:10.1177/0309133314550671 2024-10-13T14:07:29+00:00 Recent progress in landslide dating A global overview Pánek, Tomáš 2014 http://dx.doi.org/10.1177/0309133314550671 https://journals.sagepub.com/doi/pdf/10.1177/0309133314550671 https://journals.sagepub.com/doi/full-xml/10.1177/0309133314550671 en eng SAGE Publications https://journals.sagepub.com/page/policies/text-and-data-mining-license Progress in Physical Geography: Earth and Environment volume 39, issue 2, page 168-198 ISSN 0309-1333 1477-0296 journal-article 2014 crsagepubl https://doi.org/10.1177/0309133314550671 2024-10-01T04:10:43Z Recent progress of dating techniques has greatly improved the age determination of various types of landslides. Since the turn of the 21st century, the number of dated landslides throughout the world has increased several fold and the introduction of modern dating methods (e.g. cosmic ray exposure dating) has enabled the dating of new landslide features and elements. Based on the analysis of >950 dated landslides (of which 734 have been dated since the year 2000), it is clear that the predominant traditional strategies have continued to rely on the radiocarbon method; however, there is a remarkable trend of using cosmic ray exposure techniques for dating both the accumulation (e.g. landslide boulders) and the depletion (e.g. landslide scarps) parts of landslides. Furthermore, an increasing number of slope failures is determined by a multi-dating approach, which enables the verification of particular dating methods. Although coherent regional landslide chronologies are still relatively scarce in comparison with extensive databases of fluvial, glacial and/or eolian landforms, they offer important insights into temporal landslide distribution, long-term landslide behavior and their relationships with paleoenvironmental changes. The most extensive data sets exist for the mountain areas of North America (Pacific Coast Ranges), South America (Andes), Europe (Alps, Scottish Highlands, Norway, Carpathians and Apennines), the Himalaya-Tibet orogeny and the Southern Alps of New Zealand. Dated landslides in the plate interiors are lacking, especially in South America, Africa and Australia. Despite the fact that some dating results are well correlated with major regional and continental-scale changes in the seismic activity, moisture abundance, glacier regimes and vegetation patterns, some of these results contradict previously established straightforward hypotheses. This indicates the rather complex chronological behavior of landslides, reflecting both intrinsic (e.g. gradual stress relaxation within a rock mass) and ... Article in Journal/Newspaper glacier SAGE Publications Pacific Norway New Zealand Progress in Physical Geography: Earth and Environment 39 2 168 198
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language English
description Recent progress of dating techniques has greatly improved the age determination of various types of landslides. Since the turn of the 21st century, the number of dated landslides throughout the world has increased several fold and the introduction of modern dating methods (e.g. cosmic ray exposure dating) has enabled the dating of new landslide features and elements. Based on the analysis of >950 dated landslides (of which 734 have been dated since the year 2000), it is clear that the predominant traditional strategies have continued to rely on the radiocarbon method; however, there is a remarkable trend of using cosmic ray exposure techniques for dating both the accumulation (e.g. landslide boulders) and the depletion (e.g. landslide scarps) parts of landslides. Furthermore, an increasing number of slope failures is determined by a multi-dating approach, which enables the verification of particular dating methods. Although coherent regional landslide chronologies are still relatively scarce in comparison with extensive databases of fluvial, glacial and/or eolian landforms, they offer important insights into temporal landslide distribution, long-term landslide behavior and their relationships with paleoenvironmental changes. The most extensive data sets exist for the mountain areas of North America (Pacific Coast Ranges), South America (Andes), Europe (Alps, Scottish Highlands, Norway, Carpathians and Apennines), the Himalaya-Tibet orogeny and the Southern Alps of New Zealand. Dated landslides in the plate interiors are lacking, especially in South America, Africa and Australia. Despite the fact that some dating results are well correlated with major regional and continental-scale changes in the seismic activity, moisture abundance, glacier regimes and vegetation patterns, some of these results contradict previously established straightforward hypotheses. This indicates the rather complex chronological behavior of landslides, reflecting both intrinsic (e.g. gradual stress relaxation within a rock mass) and ...
format Article in Journal/Newspaper
author Pánek, Tomáš
spellingShingle Pánek, Tomáš
Recent progress in landslide dating
author_facet Pánek, Tomáš
author_sort Pánek, Tomáš
title Recent progress in landslide dating
title_short Recent progress in landslide dating
title_full Recent progress in landslide dating
title_fullStr Recent progress in landslide dating
title_full_unstemmed Recent progress in landslide dating
title_sort recent progress in landslide dating
publisher SAGE Publications
publishDate 2014
url http://dx.doi.org/10.1177/0309133314550671
https://journals.sagepub.com/doi/pdf/10.1177/0309133314550671
https://journals.sagepub.com/doi/full-xml/10.1177/0309133314550671
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New Zealand
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op_source Progress in Physical Geography: Earth and Environment
volume 39, issue 2, page 168-198
ISSN 0309-1333 1477-0296
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op_doi https://doi.org/10.1177/0309133314550671
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