Raspberry shake-based rapid structural identification of existing buildings subject to earthquake ground motion : the case study of Bucharest
Özcebe, Ali Güney and Tiganescu, Alexandru and Ozer, Ekin and Negulescu, Caterina and Galiana-merino, Juan Jose and Tubaldi, Enrico and Toma-danila, Dragos and Molina, Sergio and Kharazian, Alireza and Bozzoni, Francesca and Borzi, Barbara and Balan, Stefan Florin (2022) Raspberry shake-based rapid structural identification of existing buildings subject to earthquake ground motion : the case study of Bucharest. Sensors, 22 (13). 4787. ISSN 1424-8220 (https://doi.org/10.3390/s22134787)
Preview |
Text.
Filename: _zcebe_etal_Sensors_2022_Raspberry_shake_based_rapid_structural_identification_of_existing_buildings_subject_to_earthquake_ground_motion.pdf
Final Published Version License: Download (8MB)| Preview |
Abstract
The Internet of things concept empowered by low-cost sensor technologies and headless computers has upscaled the applicability of vibration monitoring systems in recent years. Raspberry Shake devices are among those systems, constituting a crowdsourcing framework and forming a worldwide seismic network of over a thousand nodes. While Raspberry Shake devices have been proven to densify seismograph arrays efficiently, their potential for structural health monitoring (SHM) is still unknown and is open to discovery. This paper presents recent findings from existing buildings located in Bucharest (Romania) equipped with Raspberry Shake 4D (RS4D) devices, whose signal recorded under multiple seismic events has been analyzed using different modal identification algorithms. The obtained results show that RS4D modules can capture the building vibration behavior despite the short-duration and low-amplitude excitation sources. Based on 15 RS4D device readings from five different multistorey buildings, the results do not indicate damage in terms of modal frequency decay. The findings of this research propose a baseline for future seismic events that can track the changes in vibration characteristics as a consequence of future strong earth-quakes. In summary, this research presents multi-device, multi-testbed, and multi-algorithm evidence on the feasibility of RS4D modules as SHM instruments, which are yet to be explored in earthquake engineering.
ORCID iDs
Özcebe, Ali Güney, Tiganescu, Alexandru, Ozer, Ekin ORCID: https://orcid.org/0000-0002-7177-0753, Negulescu, Caterina, Galiana-merino, Juan Jose, Tubaldi, Enrico, Toma-danila, Dragos, Molina, Sergio, Kharazian, Alireza, Bozzoni, Francesca, Borzi, Barbara and Balan, Stefan Florin;-
-
Item type: Article ID code: 81542 Dates: DateEvent24 June 2022Published24 June 2022Published Online21 June 2022AcceptedSubjects: Technology > Building construction
Technology > Engineering (General). Civil engineering (General)
Technology > Electrical engineering. Electronics Nuclear engineering
Science > Mathematics > Electronic computers. Computer science
Science > PhysicsDepartment: Faculty of Engineering > Civil and Environmental Engineering
Faculty of Engineering > The David Livingstone Centre for SustainabilityDepositing user: Pure Administrator Date deposited: 21 Jul 2022 16:02 Last modified: 13 Nov 2024 01:20 URI: https://strathprints.strath.ac.uk/id/eprint/81542