Numerical Model Calibration and a Parametric Study Based on the Out-Of-Plane Drift Capacity of Stone Masonry Walls

Failure under seismic action generally occurs in the form of out-of-plane collapses of walls before reaching their in-plane strength in historical stone masonry buildings. Consistent finite element (FE) macro modeling has emerged as a need for use in seismic assessments of these walls. This paper pr...

Full description

Bibliographic Details
Main Authors: Ibrahim Serkan Misir, Gokhan Yucel
Format: Article
Language:English
Published: MDPI AG 2023-02-01
Series:Buildings
Subjects:
Online Access:https://www.mdpi.com/2075-5309/13/2/437
_version_ 1827758183673757696
author Ibrahim Serkan Misir
Gokhan Yucel
author_facet Ibrahim Serkan Misir
Gokhan Yucel
author_sort Ibrahim Serkan Misir
collection DOAJ
description Failure under seismic action generally occurs in the form of out-of-plane collapses of walls before reaching their in-plane strength in historical stone masonry buildings. Consistent finite element (FE) macro modeling has emerged as a need for use in seismic assessments of these walls. This paper presents the numerical model calibration of U-shaped multi-leaf stone masonry wall specimens tested under ambient vibrations and out-of-plane (OOP) load reversals. The uncertain elastic parameters were obtained by manual calibration of the numerical models based on ambient vibration test (AVT) data of the specimens. To obtain nonlinear calibration parameters, static pushover analyses were performed on FE models simulating quasi-static tests. The calibrated numerical models matched well with the experimental results in terms of load–drift response and damage distribution. As a result, the modulus of elasticity and tensile and compressive degrading strength parameters of masonry walls were proposed. A parametric study was conducted to examine the effects of different materials and geometric properties (tensile strength, aspect ratio, slenderness ratio, and geometric scale) on the OOP behavior of stone masonry walls. A quite different strain distribution was obtained in the case of a large aspect ratio, while it was determined that the geometric scale had no effect on the strain distribution. Tensile strength was the dominant parameter affecting the load–drift response of the models. Within the presented work, a practical tool for out-of-plane seismic assessment has been proposed for the structures covered in this paper.
first_indexed 2024-03-11T09:04:09Z
format Article
id doaj.art-7d5eabb7520044ee85d20b1a8816df2f
institution Directory Open Access Journal
issn 2075-5309
language English
last_indexed 2024-03-11T09:04:09Z
publishDate 2023-02-01
publisher MDPI AG
record_format Article
series Buildings
spelling doaj.art-7d5eabb7520044ee85d20b1a8816df2f2023-11-16T19:32:38ZengMDPI AGBuildings2075-53092023-02-0113243710.3390/buildings13020437Numerical Model Calibration and a Parametric Study Based on the Out-Of-Plane Drift Capacity of Stone Masonry WallsIbrahim Serkan Misir0Gokhan Yucel1Civil Engineering Department, Dokuz Eylul University, Izmir 35390, TurkeyCivil Engineering Department, Osmaniye Korkut Ata University, Osmaniye 80010, TurkeyFailure under seismic action generally occurs in the form of out-of-plane collapses of walls before reaching their in-plane strength in historical stone masonry buildings. Consistent finite element (FE) macro modeling has emerged as a need for use in seismic assessments of these walls. This paper presents the numerical model calibration of U-shaped multi-leaf stone masonry wall specimens tested under ambient vibrations and out-of-plane (OOP) load reversals. The uncertain elastic parameters were obtained by manual calibration of the numerical models based on ambient vibration test (AVT) data of the specimens. To obtain nonlinear calibration parameters, static pushover analyses were performed on FE models simulating quasi-static tests. The calibrated numerical models matched well with the experimental results in terms of load–drift response and damage distribution. As a result, the modulus of elasticity and tensile and compressive degrading strength parameters of masonry walls were proposed. A parametric study was conducted to examine the effects of different materials and geometric properties (tensile strength, aspect ratio, slenderness ratio, and geometric scale) on the OOP behavior of stone masonry walls. A quite different strain distribution was obtained in the case of a large aspect ratio, while it was determined that the geometric scale had no effect on the strain distribution. Tensile strength was the dominant parameter affecting the load–drift response of the models. Within the presented work, a practical tool for out-of-plane seismic assessment has been proposed for the structures covered in this paper.https://www.mdpi.com/2075-5309/13/2/437historical stone masonryout-of-plane performancequasi-static testambient vibration testseismic performancefinite element analysis
spellingShingle Ibrahim Serkan Misir
Gokhan Yucel
Numerical Model Calibration and a Parametric Study Based on the Out-Of-Plane Drift Capacity of Stone Masonry Walls
Buildings
historical stone masonry
out-of-plane performance
quasi-static test
ambient vibration test
seismic performance
finite element analysis
title Numerical Model Calibration and a Parametric Study Based on the Out-Of-Plane Drift Capacity of Stone Masonry Walls
title_full Numerical Model Calibration and a Parametric Study Based on the Out-Of-Plane Drift Capacity of Stone Masonry Walls
title_fullStr Numerical Model Calibration and a Parametric Study Based on the Out-Of-Plane Drift Capacity of Stone Masonry Walls
title_full_unstemmed Numerical Model Calibration and a Parametric Study Based on the Out-Of-Plane Drift Capacity of Stone Masonry Walls
title_short Numerical Model Calibration and a Parametric Study Based on the Out-Of-Plane Drift Capacity of Stone Masonry Walls
title_sort numerical model calibration and a parametric study based on the out of plane drift capacity of stone masonry walls
topic historical stone masonry
out-of-plane performance
quasi-static test
ambient vibration test
seismic performance
finite element analysis
url https://www.mdpi.com/2075-5309/13/2/437
work_keys_str_mv AT ibrahimserkanmisir numericalmodelcalibrationandaparametricstudybasedontheoutofplanedriftcapacityofstonemasonrywalls
AT gokhanyucel numericalmodelcalibrationandaparametricstudybasedontheoutofplanedriftcapacityofstonemasonrywalls