A Comparative Study of Embedded Wall Displacements Using Small-Strain Hardening Soil Model

Traditional analysis of embedded earth-retaining walls relies on simplistic lateral earth pressure theory methods, which do not allow for direct computation of wall displacements. Contemporary numerical models rely on the Mohr–Coulomb model, which generally falls short of accurate wall displacement...

Full description

Bibliographic Details
Main Authors: Tzuri Eilat, Amichai Mitelman, Alison McQuillan, Davide Elmo
Format: Article
Language:English
Published: MDPI AG 2024-03-01
Series:Geotechnics
Subjects:
Online Access:https://www.mdpi.com/2673-7094/4/1/16
_version_ 1827306113663500288
author Tzuri Eilat
Amichai Mitelman
Alison McQuillan
Davide Elmo
author_facet Tzuri Eilat
Amichai Mitelman
Alison McQuillan
Davide Elmo
author_sort Tzuri Eilat
collection DOAJ
description Traditional analysis of embedded earth-retaining walls relies on simplistic lateral earth pressure theory methods, which do not allow for direct computation of wall displacements. Contemporary numerical models rely on the Mohr–Coulomb model, which generally falls short of accurate wall displacement prediction. The advanced constitutive small-strain hardening soil model (SS-HSM), effectively captures complex nonlinear soil behavior. However, its application is currently limited, as SS-HSM requires multiple input parameters, rendering numerical modeling a challenging and time-consuming task. This study presents an extensive numerical investigation, where wall displacements from numerical models are compared to empirical findings from a large and reliable database. A novel automated computational scheme is created for model generation and advanced data analysis is undertaken for this objective. The main findings indicate that the SS-HSM can provide realistic predictions of wall displacements. Ultimately, a range of input parameters for the utilization of SS-HSM in earth-retaining wall analysis is established, providing a good starting point for engineers and researchers seeking to model more complex scenarios of embedded walls with the SS-HSM.
first_indexed 2024-04-24T18:13:36Z
format Article
id doaj.art-8728c3e535c34f6ab9f0527fdbbc62de
institution Directory Open Access Journal
issn 2673-7094
language English
last_indexed 2024-04-24T18:13:36Z
publishDate 2024-03-01
publisher MDPI AG
record_format Article
series Geotechnics
spelling doaj.art-8728c3e535c34f6ab9f0527fdbbc62de2024-03-27T13:43:32ZengMDPI AGGeotechnics2673-70942024-03-014130932110.3390/geotechnics4010016A Comparative Study of Embedded Wall Displacements Using Small-Strain Hardening Soil ModelTzuri Eilat0Amichai Mitelman1Alison McQuillan2Davide Elmo3Department of Civil Engineering, Ariel University, Ariel 4077625, IsraelDepartment of Civil Engineering, Ariel University, Ariel 4077625, IsraelRocscience Inc., Toronto, ON M5T 1V1, CanadaDepartment of Mining Engineering, University of British Columbia, Vancouver, BC V6T 1Z4, CanadaTraditional analysis of embedded earth-retaining walls relies on simplistic lateral earth pressure theory methods, which do not allow for direct computation of wall displacements. Contemporary numerical models rely on the Mohr–Coulomb model, which generally falls short of accurate wall displacement prediction. The advanced constitutive small-strain hardening soil model (SS-HSM), effectively captures complex nonlinear soil behavior. However, its application is currently limited, as SS-HSM requires multiple input parameters, rendering numerical modeling a challenging and time-consuming task. This study presents an extensive numerical investigation, where wall displacements from numerical models are compared to empirical findings from a large and reliable database. A novel automated computational scheme is created for model generation and advanced data analysis is undertaken for this objective. The main findings indicate that the SS-HSM can provide realistic predictions of wall displacements. Ultimately, a range of input parameters for the utilization of SS-HSM in earth-retaining wall analysis is established, providing a good starting point for engineers and researchers seeking to model more complex scenarios of embedded walls with the SS-HSM.https://www.mdpi.com/2673-7094/4/1/16embedded wallsearth-retaining wallshardening soil modelgeotechnical analysisnumerical modelingmachine learning
spellingShingle Tzuri Eilat
Amichai Mitelman
Alison McQuillan
Davide Elmo
A Comparative Study of Embedded Wall Displacements Using Small-Strain Hardening Soil Model
Geotechnics
embedded walls
earth-retaining walls
hardening soil model
geotechnical analysis
numerical modeling
machine learning
title A Comparative Study of Embedded Wall Displacements Using Small-Strain Hardening Soil Model
title_full A Comparative Study of Embedded Wall Displacements Using Small-Strain Hardening Soil Model
title_fullStr A Comparative Study of Embedded Wall Displacements Using Small-Strain Hardening Soil Model
title_full_unstemmed A Comparative Study of Embedded Wall Displacements Using Small-Strain Hardening Soil Model
title_short A Comparative Study of Embedded Wall Displacements Using Small-Strain Hardening Soil Model
title_sort comparative study of embedded wall displacements using small strain hardening soil model
topic embedded walls
earth-retaining walls
hardening soil model
geotechnical analysis
numerical modeling
machine learning
url https://www.mdpi.com/2673-7094/4/1/16
work_keys_str_mv AT tzurieilat acomparativestudyofembeddedwalldisplacementsusingsmallstrainhardeningsoilmodel
AT amichaimitelman acomparativestudyofembeddedwalldisplacementsusingsmallstrainhardeningsoilmodel
AT alisonmcquillan acomparativestudyofembeddedwalldisplacementsusingsmallstrainhardeningsoilmodel
AT davideelmo acomparativestudyofembeddedwalldisplacementsusingsmallstrainhardeningsoilmodel
AT tzurieilat comparativestudyofembeddedwalldisplacementsusingsmallstrainhardeningsoilmodel
AT amichaimitelman comparativestudyofembeddedwalldisplacementsusingsmallstrainhardeningsoilmodel
AT alisonmcquillan comparativestudyofembeddedwalldisplacementsusingsmallstrainhardeningsoilmodel
AT davideelmo comparativestudyofembeddedwalldisplacementsusingsmallstrainhardeningsoilmodel