2017
DOI: 10.1016/j.ijdrr.2017.05.008
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Characterization of URM buildings and evaluation of damages in a historical center for the seismic risk mitigation and emergency management

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Cited by 14 publications
(10 citation statements)
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“…However, analytical methods can increasingly rely on innovative sensing technologies (e.g., aerophotogrammetry, Google Maps, drones, remote sensing etc. ), allowing the collection of numerous data remotely with considerable time savings (Vona et al 2017;Fabris et al 2013), and on innovative methods of statistical inference, allowing to derive all the parameters necessary to define the structural models on the basis of a few main measured characteristics (Campostrini et al 2017;Taffarel et al 2018).…”
Section: Introductionmentioning
confidence: 99%
“…However, analytical methods can increasingly rely on innovative sensing technologies (e.g., aerophotogrammetry, Google Maps, drones, remote sensing etc. ), allowing the collection of numerous data remotely with considerable time savings (Vona et al 2017;Fabris et al 2013), and on innovative methods of statistical inference, allowing to derive all the parameters necessary to define the structural models on the basis of a few main measured characteristics (Campostrini et al 2017;Taffarel et al 2018).…”
Section: Introductionmentioning
confidence: 99%
“…For these reasons, the GIS also represents a powerful tool in the field of seismic vulnerability and risk assessment on a large scale, for which all approaches and methodologies must be based on a wide and accurate set of information, being the knowledge of morphological, geometrical, and structural information about a town, its streets, its buildings, and their aggregation, which constitutes crucial input for subsequent analyses [49]. Nevertheless, as already highlighted, at this scale of application, the accessibility, availability, and reliability of data represent the main hurdle to overcome, and the focus should be the data collection procedures and the improvement of methods to investigate the seismic vulnerability of buildings [50]; indeed, in recent years, several procedures have been developed.…”
Section: State Of the Art About Gis-based Building Inventory For The ...mentioning
confidence: 99%
“…The potential of such an IT tool is the possibility to create representative georeferenced databases by manipulating and integrating large sets of different typologies of information derived from the overlap of several data sources and then to implement automatic numerical algorithms for multiple purposes [48]. Indeed, in the GIS environment, it is possible to manage, combine, and analyze geospatial databases about existing building stock and display general information and results about vulnerability assessment, damage, and loss estimation [49][50][51][52]. In addition, the possibility for enhancing the collection data procedure and subsequent seismic vulnerability and risk assessment on a large scale is based on the use of fuzzy logic [53][54][55], machine learning [46,56,57], and Artificial Neural Networks (ANNs) [58][59][60][61].…”
mentioning
confidence: 99%
“…In addition, difficulties in establishing residual capacity of earthquake-damaged buildings have contributed to the decision of demolishing buildings (Elwood et al, 2016), which is ecologically unsustainable. Recently, use of unmanned aerial vehicles to perform rapid post-earthquake surveys has been proposed (Vona, Cascini, Mastroberti, Murgante, & Nolè, 2017) to enhance visual inspection. However, determining residual capacities of deteriorated buildings remains challenging (Marquis, Kim, Elwood, & Chang, 2017).…”
Section: Introductionmentioning
confidence: 99%