ANALYSIS OF THE SEISMIC PERFORMANCE OF A STRENGTHENED PAGODA TEMPLE DURING GORKHA EARTHQUAKE

An earthquake of magnitude Mw 7.8 struck mid-western Nepal on April 25th 2015, followed by hundreds of aftershocks.
\nThis earthquake level is not uncommon in Nepal, where several events of magnitude 8 or even greater have occurred in the
\npast. The earthquake destroyed approximately half a million houses and damaged another quarter million; it also damaged
\nor destroyed part of the seven Cultural World Heritage Sites located in the Kathmandu Valley.
\nFollowing the seismic event, several field surveys were performed, which provided clear evidence to construction
\ntechnologies commonly employed in the earthquake stricken areas. Specifically, interesting data have been collected about
\nthe use of wood and bricks: two kinds of bricks of different quality are traditionally employed for the masonry internal side
\nand for the external one, respectively; masonry walls, indeed, are normally constituted by three layers, with the middle core
\nfilled with lower quality material. In relation to the use of wood as a construction material, timber elements are widely
\npresent both in vernacular and monumental architecture as well, mainly because of the large material availability; they are
\ntypically used not only for floor and roof structures, but also for the framing of openings.
\nAll this applies to the case of temple structures as well, which are extremely significant from both the historical and
\narchitectural point of view, since they reflect high quality handcraft and the use of the best materials and workmanship
\navailable at the time of construction. In this work, attention is focused on the specific case of pagoda temples, which were
\ndestroyed in a limited number of cases, whereas most of them survived the earthquake with limited damage.
\nA specific building technology has been observed in these structures, which deserves special attention. Pagoda temples,
\nindeed, exhibit specific characteristics, related to the response to earthquake motion: lack of continuity of the masonry walls
\nin the vertical direction, conical configuration of the internal masonry structure, open spaces at the ground level, poor
\nconnections between structural elements.
\nIn order to interpret the dynamic behavior of a pagoda in a Buddist monastery in Lalitpur, Kathmandu Valley, information
\non recent renovation interventions have been collected. On the basis of available information on the structure geometry,
\nconstruction details and material properties, a numerical model has been developed. Dynamic analyses performed in the
\nlinear range indicated the interest for more sophisticated computations, based on the recognition and the analysis of specific
\nlocal collapse mechanisms.

Authors

Publication Details

Journal
Virtual Community of Pathological Anatomy (University of Castilla La Mancha)
Published
2025-12-18
DOI
https://doi.org/10.71846/16-wcee-0114
Citations
2
Primary Topic
Urban and spatial planning
Type
article
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article

ANALYSIS OF THE SEISMIC PERFORMANCE OF A STRENGTHENED PAGODA TEMPLE DURING GORKHA EARTHQUAKE

Devis Sonda, Jitendra Bothara, Sandra Tonna, Claudio Chesi et al.
2 citations
Virtual Community of Pathological Anatomy (University of Castilla La Mancha)
Urban and spatial planning
article

ANALYSIS OF THE SEISMIC PERFORMANCE OF A STRENGTHENED PAGODA TEMPLE DURING GORKHA EARTHQUAKE

Devis Sonda, Jitendra Bothara, Sandra Tonna, Claudio Chesi, Valentina Sumini
article en
2 citations

Abstract

An earthquake of magnitude Mw 7.8 struck mid-western Nepal on April 25th 2015, followed by hundreds of aftershocks.
\nThis earthquake level is not uncommon in Nepal, where several events of magnitude 8 or even greater have occurred in the
\npast. The earthquake destroyed approximately half a million houses and damaged another quarter million; it also damaged
\nor destroyed part of the seven Cultural World Heritage Sites located in the Kathmandu Valley.
\nFollowing the seismic event, several field surveys were performed, which provided clear evidence to construction
\ntechnologies commonly employed in the earthquake stricken areas. Specifically, interesting data have been collected about
\nthe use of wood and bricks: two kinds of bricks of different quality are traditionally employed for the masonry internal side
\nand for the external one, respectively; masonry walls, indeed, are normally constituted by three layers, with the middle core
\nfilled with lower quality material. In relation to the use of wood as a construction material, timber elements are widely
\npresent both in vernacular and monumental architecture as well, mainly because of the large material availability; they are
\ntypically used not only for floor and roof structures, but also for the framing of openings.
\nAll this applies to the case of temple structures as well, which are extremely significant from both the historical and
\narchitectural point of view, since they reflect high quality handcraft and the use of the best materials and workmanship
\navailable at the time of construction. In this work, attention is focused on the specific case of pagoda temples, which were
\ndestroyed in a limited number of cases, whereas most of them survived the earthquake with limited damage.
\nA specific building technology has been observed in these structures, which deserves special attention. Pagoda temples,
\nindeed, exhibit specific characteristics, related to the response to earthquake motion: lack of continuity of the masonry walls
\nin the vertical direction, conical configuration of the internal masonry structure, open spaces at the ground level, poor
\nconnections between structural elements.
\nIn order to interpret the dynamic behavior of a pagoda in a Buddist monastery in Lalitpur, Kathmandu Valley, information
\non recent renovation interventions have been collected. On the basis of available information on the structure geometry,
\nconstruction details and material properties, a numerical model has been developed. Dynamic analyses performed in the
\nlinear range indicated the interest for more sophisticated computations, based on the recognition and the analysis of specific
\nlocal collapse mechanisms.

Virtual Community of Pathological Anatomy (University of Castilla La Mancha)
Sustainable cities and communities
Openalex Percentile: Top 100%
Urban and spatial planning
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