An engineering geomorphological investigation of hillslope stability in the Peak District of Derbyshire

Large-scale civil engineering works, planning and land-management in areas known to have a landslide problem require regional landslide susceptibility evaluation. The Matrix Assessment Approach (MAP) is introduced as a technique for establishing an index of slope stability over large areas. The meth...

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Main Author: Cross, Martin
Format: Thesis (University of Nottingham only)
Language:English
Published: 1987
Subjects:
Online Access:https://eprints.nottingham.ac.uk/11324/
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author Cross, Martin
author_facet Cross, Martin
author_sort Cross, Martin
building Nottingham Research Data Repository
collection Online Access
description Large-scale civil engineering works, planning and land-management in areas known to have a landslide problem require regional landslide susceptibility evaluation. The Matrix Assessment Approach (MAP) is introduced as a technique for establishing an index of slope stability over large areas. The method allows the relative landslide susceptibility to be computed over large areas using a discrete combination of geological/geomorphological parameters. MAP was applied to a region in the Peak District, Derbyshire. The model identified key geological/geomorphological parameters involved in deep-seated failures, provided an effective means of classifying the stability of slopes over a large area and successfully indicated sites of previously unmapped landslides. The resultant regional landslide susceptibility index provides useful preliminary information for use at the pre-site/reconnaissance stages, of large-scale civil engineering works such as highway construction. Unlike deep-seated failures, shallow translational slides usually do not prevent the use of areas above and below the failure, however, they can cause considerable inconvenience and expense When remedial engineering works are necessary. An investigation was undertaken in order to establish the precise critical state of geomorphological factors involved in shallow translational landsliding in the Peak District. Back calculations based on the Infinite Slope Stability Model showed how the factor of safety against shallow translational sliding changed as one geomorphological parameter varied. The value of the factor of safety was very sensitive to changes in the values of effective cohesion and piezometric height, moderately sensitive to changes in the values of regolith depth and the angle of slope inclination and insensitive to changes in the values of angle of friction with respect to effective stresses and soil unit weight. The recognition of such meso/micro geomorphological thresholds is not only important for geomorphologists concerned with landform evolution, it is also fundamental to successful and safe engineering practices.
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publishDate 1987
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spelling nottingham-113242025-02-28T11:12:44Z https://eprints.nottingham.ac.uk/11324/ An engineering geomorphological investigation of hillslope stability in the Peak District of Derbyshire Cross, Martin Large-scale civil engineering works, planning and land-management in areas known to have a landslide problem require regional landslide susceptibility evaluation. The Matrix Assessment Approach (MAP) is introduced as a technique for establishing an index of slope stability over large areas. The method allows the relative landslide susceptibility to be computed over large areas using a discrete combination of geological/geomorphological parameters. MAP was applied to a region in the Peak District, Derbyshire. The model identified key geological/geomorphological parameters involved in deep-seated failures, provided an effective means of classifying the stability of slopes over a large area and successfully indicated sites of previously unmapped landslides. The resultant regional landslide susceptibility index provides useful preliminary information for use at the pre-site/reconnaissance stages, of large-scale civil engineering works such as highway construction. Unlike deep-seated failures, shallow translational slides usually do not prevent the use of areas above and below the failure, however, they can cause considerable inconvenience and expense When remedial engineering works are necessary. An investigation was undertaken in order to establish the precise critical state of geomorphological factors involved in shallow translational landsliding in the Peak District. Back calculations based on the Infinite Slope Stability Model showed how the factor of safety against shallow translational sliding changed as one geomorphological parameter varied. The value of the factor of safety was very sensitive to changes in the values of effective cohesion and piezometric height, moderately sensitive to changes in the values of regolith depth and the angle of slope inclination and insensitive to changes in the values of angle of friction with respect to effective stresses and soil unit weight. The recognition of such meso/micro geomorphological thresholds is not only important for geomorphologists concerned with landform evolution, it is also fundamental to successful and safe engineering practices. 1987 Thesis (University of Nottingham only) NonPeerReviewed application/pdf en arr https://eprints.nottingham.ac.uk/11324/1/233901.pdf Cross, Martin (1987) An engineering geomorphological investigation of hillslope stability in the Peak District of Derbyshire. PhD thesis, University of Nottingham. hillslope stability geomorphology geology Matrix Assessment Approach Peak District
spellingShingle hillslope stability
geomorphology
geology
Matrix Assessment Approach
Peak District
Cross, Martin
An engineering geomorphological investigation of hillslope stability in the Peak District of Derbyshire
title An engineering geomorphological investigation of hillslope stability in the Peak District of Derbyshire
title_full An engineering geomorphological investigation of hillslope stability in the Peak District of Derbyshire
title_fullStr An engineering geomorphological investigation of hillslope stability in the Peak District of Derbyshire
title_full_unstemmed An engineering geomorphological investigation of hillslope stability in the Peak District of Derbyshire
title_short An engineering geomorphological investigation of hillslope stability in the Peak District of Derbyshire
title_sort engineering geomorphological investigation of hillslope stability in the peak district of derbyshire
topic hillslope stability
geomorphology
geology
Matrix Assessment Approach
Peak District
url https://eprints.nottingham.ac.uk/11324/