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Civil-Comp Proceedings
ISSN 1759-3433
CCP: 108
PROCEEDINGS OF THE FIFTEENTH INTERNATIONAL CONFERENCE ON CIVIL, STRUCTURAL AND ENVIRONMENTAL ENGINEERING COMPUTING
Edited by: J. Kruis, Y. Tsompanakis and B.H.V. Topping
Paper 56

Seismic Vulnerability Assessment of the Casamari Gothic Church

G. de Felice1, A. Genoese1, A. Genoese2 and M. Malena1

1Department of Engineering, Roma Tre University, Rome, Italy
2Department of Architecture, Roma Tre University, Rome, Italy

Full Bibliographic Reference for this paper
G. de Felice, A. Genoese, A. Genoese, M. Malena, "Seismic Vulnerability Assessment of the Casamari Gothic Church", in J. Kruis, Y. Tsompanakis, B.H.V. Topping, (Editors), "Proceedings of the Fifteenth International Conference on Civil, Structural and Environmental Engineering Computing", Civil-Comp Press, Stirlingshire, UK, Paper 56, 2015. doi:10.4203/ccp.108.56
Keywords: masonry churches, structural models, modal finite element analysis, nonlinear finite element analysis, homogenization, seismic capacity, ABAQUS.

Summary
This paper focuses on the seismic behaviour of the Casamari Gothic church located close to Frosinone in Italy. Linear static and dynamic finite element analyses are developed using a three-dimensional model of the whole church employing the commercial code ABAQUS. The three-dimensional model was realized using shell elements to model the midplane masonry walls. Fundamental frequencies of the cathedral in the main horizontal directions are derived by means of the finite element analysis.

Non-linear static analysis on a transversal section with horizontal forces adopted to represent the seismic action, known as pushover analysis, has been carried out to estimate the seismic response of the structure. The analyses have been carried out under conditions of constant gravity loads and monotonically increasing horizontal loads. In this case, the finite element model will be a two-dimensional plane stress model. In particular, masonry has been schematised as an anisotropic medium, whose yield criterion is derived using homogenisation, starting form a block structure with periodic texture. The adopted macroscopic model is shown to retain memory of the mechanical characteristics of the joints and of the shape of the blocks.

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