Evolution of modal characteristics of a mid‐rise cold‐formed steel building during construction and earthquake testing

Wang, Xiang; Hutchinson, Tara C.

doi:10.1002/eqe.3316

Cited by 13 publications

(5 citation statements)

References 30 publications

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“…At last, few authors investigated the effects of non-structural components and equipment on the building dynamic [78] FVs (shaker) EDS Dhakal et al [79] AVTs Shell De Angelis and Pecce [80] AVTs EDS De Angelis and Pecce [81] AVTs EDS Asgarian and McClure [82] AVTs EDS and Shell Mora et al [83] AVTs EDS and Shell Pan et al [84] AVTs Shell Yun et al [85] AVTs EDS Zhou et al [86] AVTs EDS and Shell Su et al [87] AVTs Shell Aras [88] AVTs and ILTs (Hammer) Shell O'Reilly et al [89] AVTs and FVs (Earthquakes) EDS But and Omenzetter [90] FVs (Earthquakes) EDS behaviour. It is the case of Alembagheri et al [91], who dynamically tested a full-scale laboratory 3-D steel module with different gypsum-board walls, or Wang et al [92], who tested a full-scale steel structure specimen over a shaking table focusing also on the effects of interior partitions and plant piping. Also, Astroza et al [93] tested a full-scale RC specimen over a shaking table in different construction stages and, moreover, once non-structural components and equipment have been installed, in order to investigate the dynamic interaction between them and the structural members.…”

Section: Effects Of Infill Masonry Walls On the Dynamic Behaviour Of ...mentioning

confidence: 99%

Vibration-Based Tests and Results for the Evaluation of Infill Masonry Walls Influence on the Dynamic Behaviour of Buildings: A Review

Nicoletti

Arezzo

Carbonari

et al. 2022

Arch Computat Methods Eng

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Tests on infill masonry walls have been widely performed by many researchers and for a long time with the main purpose of characterising the infill performance under earthquake-type excitations. However, most of these works deal with laboratory tests on purpose-built specimens. More recently, vibration-based tests have been also adopted to investigate the influence of the non-structural elements on the dynamic behaviour of buildings, with the advantage that this kind of tests can be performed both on laboratory specimens and on in-situ buildings. However, differently from classical infill tests (i.e., monotonic or cyclic lateral load tests, out of plane tests, etc.), a limited number of works is available in the literature discussing the outcomes and possible procedures for testing infilled structures with vibration-based methods aimed to investigate the role of the non-structural components. This paper presents a literature review of research works dealing with vibration-based tests performed on RC frame structures with the main target of discussing the influence of non-structural components on the dynamics of buildings. Tests on infilled buildings performed during the construction, in operating conditions and after the damage occurred due to earthquake shakings, are discussed. Furthermore, a comprehensive review about papers discussing vibration-based tests performed on infill masonry walls is presented and in-depth investigated with the aim of finding possible correlations between the dynamic test outcomes and the infill geometric and mechanical properties. From this study it comes out the need of further experimental data on both undamaged and damaged infills in order to get more reliable correlations.

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Section: Effects Of Infill Masonry Walls On the Dynamic Behaviour Of ...mentioning

confidence: 99%

Vibration-Based Tests and Results for the Evaluation of Infill Masonry Walls Influence on the Dynamic Behaviour of Buildings: A Review

Nicoletti

Arezzo

Carbonari

et al. 2022

Arch Computat Methods Eng

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“…Regarding seismic behaviour and structural analysis, it is shown that LSF system in combination with shear walls can be considered as an appropriate choice in areas with high seismic hazards or high important buildings like schools and hospitals based on experimental researches of Fiorino, Iuorio, and Landolfo (2014), Iuorio, Fiorino, and Landolfo (2014), Khalifa et al (2020) and Wang and Hutchinson (2020).…”

Section: Lsf Systemsmentioning

confidence: 99%

Applying a new systematic fuzzy FMEA technique for risk management in light steel frame systems

Yeganeh

Heravi

Razavian

et al. 2021

Journal of Asian Architecture and Building Engineering

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Light Steel Frame (LSF) system is mainly used for construction of short and intermediate-height buildings in developed countries whereas considerable heed is not given to it in developing countries. Unfamiliarity to LSF risks is one of the main reasons for this averseness so risk management can remedy this challenge and develop its application. Hence, this paper investigates the risk management of LSF considering design, construction and operation phase. Three steps entailing risk identification, assessment and responding using fuzzy Failure Mode and Effect Analysis (FMEA) technique are suggested for risk management implementation and validation of responses, a novel index with respect to weighted combination of project quality, time and cost is calculated. The methodology is demonstrated on a pilot study in a developing country. By using interview, 29 significant risks are extracted in design, construction and operation and then evaluated by proposed fuzzy method. Results showed that the share of the risks in these steps are 21%, 31% and 48% respectively. The results revealed that the risks in the construction and operation phases are higher than those in the design phase. The results also show that involving safety as a project object in the risk management process could eventuate acceptable results.

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“…These migrations have not only improved socioeconomic condition of local area but also provides an opportunity to multi-cultural society to develop complex building structures with newer construction material and techniques [2]. Local and central government have invested in upscaling human development in urban areas by providing physical infrastructures (landscape building, libraries, railways, roads, business parks, schools, electricity, and other day-to-day utilities) and critical infrastructure (hospital, military bases, emergency shelter) [15]. These public buildings and infrastructure were designed and construct with the resources available at the time of construction to fitful their long-term usability by withstanding extreme weather, capacity, and load.…”

Section: Background and Literature Reviewmentioning

confidence: 99%

Spiking Neural Network-based Structural Health Monitoring Hardware System

Javed

Harkin

McDaid

et al. 2021

2021 IEEE Symposium Series on Computational Intelligence (SSCI)

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Structural Health Monitoring (SHM) systems estimate damages that affect structural reliability. Modern SHM requires continuous monitoring to detect damage caused by day-to-day loading and usage. SHM analyzes structural integrity and identifies weaknesses leading to potential building collapse. In disaster situations e.g., earthquakes, SHM systems enable early assessment of building safety and therefore ensure evacuation and prevention of human losses. In an urban area, multi-story constructions in congested areas become a hazard if their structural health is not well monitored and maintained properly. A key challenge is the ability to detect damages in an efficient manner for edge computing. In this work, we propose an SNN based low-cost, energy-efficient, and standalone damage classification model for SHM. The proposed classification model is implemented on FPGAs and results show a classification accuracy of 99.46% on a sensory dataset for earthquake damage on a 7-Story concrete building.

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Evolution of modal characteristics of a mid‐rise cold‐formed steel building during construction and earthquake testing

Abstract: Vibration-based structural identification is an essential technique for assessing structural conditions by inferring information from the dynamic characteristics of structures. However, the robustness of such techniques in monitoring

Cited by 13 publications

References 30 publications

Vibration-Based Tests and Results for the Evaluation of Infill Masonry Walls Influence on the Dynamic Behaviour of Buildings: A Review

Vibration-Based Tests and Results for the Evaluation of Infill Masonry Walls Influence on the Dynamic Behaviour of Buildings: A Review

Applying a new systematic fuzzy FMEA technique for risk management in light steel frame systems

Spiking Neural Network-based Structural Health Monitoring Hardware System

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