Bayesian Emulation of Geotechnical Deterioration Curves Using Quadratic and B-Spline Hierarchical Models

The stability of geotechnical infrastructure assets, such as cuttings and embankments, is crucial to the safe and efficient delivery of transport services. The successful emulation of geotechnical models of deterioration of infrastructure slopes has the potential to inform slope design, maintenance...

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Veröffentlicht in:arXiv.org 2024-07
Hauptverfasser: Oakley, Jordan L, Svalova, Aleksandra, Helm, Peter, Rouainia, Mohamed, Glendinning, Stephanie, Prangle, Dennis, Wilkinson, Darren
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Svalova, Aleksandra
Helm, Peter
Rouainia, Mohamed
Glendinning, Stephanie
Prangle, Dennis
Wilkinson, Darren
description The stability of geotechnical infrastructure assets, such as cuttings and embankments, is crucial to the safe and efficient delivery of transport services. The successful emulation of geotechnical models of deterioration of infrastructure slopes has the potential to inform slope design, maintenance and remediation by introducing the time dependency of deterioration into geotechnical asset management. We have performed computer experiments of deterioration, measured by the factor of safety (FoS), for a set of cutting slope geometries and soil properties that are common in the southern UK. Whilst computer experiments are an extremely useful and cost-effective method of better understanding deterioration mechanisms, it would not be practical to run enough experiments to understand relations between high-dimensional inputs and outputs. Therefore, we trained a fully-Bayesian Gaussian process emulator using an ensemble of 75 computer experiments to predict the FoS. We construct two different emulator models, one approximating the FoS temporal evolution with a quadratic model and one approximating the temporal evolution with a B-spline model; and we emulated their parameters. We also compare the ability of our models to predict failure time. The developed models could be used to inform infrastructure cutting slope design and management, and extend serviceable life.
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subjects Approximation
Asset management
B spline functions
Bayesian analysis
Design parameters
Deterioration
Embankment stability
Emulators
Evolution
Experiments
Failure times
Gaussian process
Geotechnical models
Infrastructure
Safety factors
Safety management
Slope stability
Soil properties
Soil remediation
Time dependence
Time measurement
title Bayesian Emulation of Geotechnical Deterioration Curves Using Quadratic and B-Spline Hierarchical Models
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