Ambient Vibration as a Basis for Determining the Structural Behaviour of Watchtowers against Horizontal Loads in Southeast Spain

Featured Application A methodology is presented based on in situ ambient vibration tests to estimate the fundamental frequency, as well as the global Young's modulus, of different types of watchtowers (13th-18th century) built with masonry, while a number of examples constructed with rammed ear...

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Veröffentlicht in:Applied sciences 2020-09, Vol.10 (17), p.6114, Article 6114
Hauptverfasser: Ruiz-Jaramillo, Jonathan, Montiel-Vega, Laura, Jose Garcia-Pulido, Luis, Munoz-Gonzalez, Carmen, Blanca-Hoyos, Alvaro
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creator Ruiz-Jaramillo, Jonathan
Montiel-Vega, Laura
Jose Garcia-Pulido, Luis
Munoz-Gonzalez, Carmen
Blanca-Hoyos, Alvaro
description Featured Application A methodology is presented based on in situ ambient vibration tests to estimate the fundamental frequency, as well as the global Young's modulus, of different types of watchtowers (13th-18th century) built with masonry, while a number of examples constructed with rammed earth are also analysed. The Kingdom of Granada occupied the southeast of the Iberian Peninsula, what today would be the current Spanish provinces of Granada, Malaga and Almeria. Having succeeded the Nasrid kingdom of Granada (1238-1492), it remained a geographical and administrative unit until 1834, defended from the advancement of Castilian troops by means of a large network of watchtowers located principally along its inland border. Following the Castilian conquest of Granada, the extensive coastline was also strengthened with a network of towers and fortifications that were progressively adapted to house artillery. A technical survey focusing on the characteristics of their geometrics and construction, as well as their performance in a series of non-destructive tests, such as ambient vibration testing, was undertaken to study the towers' mechanical strength against both gravitational and seismic loads. The results propose a numerical estimate that defines the fundamental frequency of this type of structure, which in turn can be used to approximate the mechanical properties of the masonry. Such a precise definition based on objective data enables accurate and rigorous numerical analysis of this defensive architecture, thus reducing uncertainties. Furthermore, slenderness is found to be a relevant parameter for adjusting fundamental frequency and for analysing the towers' historical evolution, enabling their initial height and number of levels to be estimated.
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subjects ambient vibration test
Building construction
Chemistry
Chemistry, Multidisciplinary
Decision making
Destructive testing
Earthquake loads
Engineering
Engineering, Multidisciplinary
Frequency analysis
Gravity
Historical buildings
Horizontal loads
Kingdom of Granada
Masonry
Materials Science
Materials Science, Multidisciplinary
mechanical parameters
Mechanical properties
non-destructive testing
Nondestructive testing
Numerical analysis
Parameter uncertainty
Physical Sciences
Physics
Physics, Applied
Resonant frequencies
Science & Technology
Seismic engineering
Shear strength
Technology
Towers
Vibration
watchtowers
Young’s modulus
title Ambient Vibration as a Basis for Determining the Structural Behaviour of Watchtowers against Horizontal Loads in Southeast Spain
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