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Identifying the role of structural and lithological control of landslides using TOBIA and Weight of Evidence: case studies from Romania

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A Correction to this article was published on 23 June 2022

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Abstract

It is well known that geological structure is one of the main predisposing factors that control landslide occurrence at regional scale. Along time, investigation of the role of structural and lithologic controls has raised the interest of specialists from various earth and planetary sciences who proposed different approaches that range from descriptive analysis to automatic detection. The aim of this study is to investigate the role of structural and lithological controls on landslide occurrence at regional scale. To achieve this, a collection of tools for calculating the TOBIA index and estimating the relationship between morphostructural and lithological conditions and landslide occurrences was developed using Python programming language. The relationship between geological structure and landslide occurrences was analyzed in three distinct landslide-prone sites in Romania, located in different geological and geomorphological contexts. The spatial distribution of the geological structure is modelled based on the TOBIA index (TOpographic/Bedding-plane Intersection Angle). The TOBIA index uses topographic slope, slope aspect, dip angle, and dip direction to divide the terrain into three categories named cataclinal, anaclinal, and orthoclinal, with each category having several subcategories. Additionally, by implementing the bivariate statistical analyses (Weight of Evidence), we investigated the relationship of landslide occurrences to the resulted morphostructural slopes, on the one hand, and to the lithological units, on the other hand. The output contrast values show an evident influence of the cataclinal slopes over landslide occurrences in homoclinal areas, with most of the scarps occurring at the contact between cataclinal and orthoclinal slopes. Fewer influences are found in areas where clay outcrops and where the geological structure has a much-diminished control over the presence of the landslides. These results contribute to a better understanding of the role of structural and lithologic controls on landslide occurrence at regional scale and furthermore could serve to a better assessment of landslide susceptibility. The results obtained on different geologic and geomorphic contexts in Romania suggest that this methodology can be applied successfully in other areas prone to landslides. For reproducibility purposes, the GIS set of tools was made available under the MIT license.

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Authors and Affiliations

  1. Geological Institute of Romania, Caransebeş Street, no. 1, Bucharest, Romania

    Viorel Ilinca

  2. Faculty of Geography, University of Bucharest, Nicolae Bălcescu Avenue, no. 1, Bucharest, Romania

    Ionuţ Şandric

  3. Institute of Geography, Romanian Academy, Dimitrie Racoviţă Street, no. 12, Bucharest, Romania

    Marta Jurchescu

  4. The National Institute of Hydrology and Water Management, București-Ploiești Avenue, no. 97, Bucharest, Romania

    Zenaida Chiţu

  5. National Meteorological Administration, București-Ploiești Avenue, no. 97, Bucharest, Romania

    Zenaida Chiţu

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  1. Viorel Ilinca
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  2. Ionuţ Şandric
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Correspondence to Ionuţ Şandric.

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The original online version of this article was revised: The published version of this article contains an error. The authors noticed that an incorrect reference was cited in page 3 and a new reference should be added in the reference list. The correct reference for Ștefănescu et al. 1988 cited in page 3 is: Ștefănescu, M., Polonic, P., Berza, T., Hann, H., Balintoni, I., Popescu, I., Ionescu, F., Niculin, M., Popescu-Brădet, L., & Constantinescu, L. (1988). Secțiune geologică Tăul Zăului-Bogata-Ocna Sibiului-Poplaca-Românii de Sus-Horezu-Tetoiu-Călinești-Malu Mare (A-B). Institutul Geologic al României, Bucureşti. The original article has been corrected.

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Ilinca, V., Şandric, I., Jurchescu, M. et al. Identifying the role of structural and lithological control of landslides using TOBIA and Weight of Evidence: case studies from Romania. Landslides 19, 2117–2134 (2022). https://doi.org/10.1007/s10346-021-01749-8

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