Abstract
The advances in surveying techniques based on high resolution 3D laser scanners and photo shot data sets make it possible to measure the deviation between the numerical experimental model and the mathematical model. The former model is discontinuous but objectively defined on the bases of the precision of the instrument whereas the latter is continuous but abstract in its analogically idealized geometrical form. By sharing survey data it is possible to devise interoperable workflows which are useful in the design activities of architects and engineers. This paper discusses the convenience of sharing survey data to manage models and information presenting a case study of the façade of Paolo Soleri’s Solimene factory as a pilot procedure to organize a shared and interoperable workflow.
This is a preview of subscription content, log in via an institution to check access.
Similar content being viewed by others
Notes
Legislative Decree no. 42 of 22 January 2004, Codice dei Beni Culturali e del Paesaggio (legal code governing the cultural and landscape heritage).
The copies signed by Francesco Immormino, who performed the statics analysis (Zampino 1995), are stored in Vietri’s city hall.
One such code, for instance, is “E203-2013 Building Information Modeling and Digital Data Exhibit”, a contract documenting the contents of the main design elements according to the design phase they describe, periodically updated and published online (https://www.aiacontracts.org/contract-documents/19026-building-information-modeling-and-digital-data-exhibit).
Faro Laser Scanner Focus 3D 130 HDR. Phase shift laser scanner; precision ± 2 mm; range: 0–130 m; integrated metric photo-camera (> 6 MP); integrated GPS antenna; acquisition speed: min. 976.000 pti/sec; scan angles: 360° horizontal–300° vertical.
Several interpretation mistakes might be made because of the lack of stereoscopic vision and the difficulty in adequately juxtaposing the picture onto the model when the perspective does not coincide with the perspective of the photo shot.
The signal’s latency delay enables the software to interpret the values as “peaks” and “valleys” of the surfaces, which is not the case for reflective and transparent surfaces where acquisition is much more complex.
UNI 11337:2017. Edilizia e opere di ingegneria civile—Gestione digitale dei processi informativi delle costruzioni—Parte 1: Modelli, elaborati e oggetti informativi per prodotti e processi.
See the earlier note regarding “AIA E203-2013: Building Information Modeling and Digital Data Exhibit”.
Italian legislative degree of 18 April 2016, no. 50.
References
Amor Vacui Studio. 2015. Restauro della fabbrica di ceramiche Solimene. http://www.amorvacui.org/?p=128.
Bartolucci, Daniele. 2009. Principi di Laser Scanning 3D, Hardware—Metodologie applicative—Esempi. Palermo: Dario Flaccovio. EAN:9788877588623.
Benedetti, Benedetto, Marco Gaiani, and Fabio Remondino. 2011. Modelli digitali 3D in archeologia: il caso di Pompei. Pisa: Scuola Normale Superiore.
Chevrier, Christine, and Jean-Pierre Perrin. 2009. Generation of architectural parametric components cultural heritage 3D modeling. In CRAI Cahiers de Recherche en Architecture et Ingénierie 2009, UMR MAP n. 694, T. Tidafi and T. Dorta, eds. Nancy: École Nationale Supérieure d’Architecture de Nancy Centre de Recherche en Architecture et Ingénierie.
Gonizzi Barsanti, Sara, and Gabriele Guidi. 2017. A geometric processing workflow for transforming reality-based 3D models in volumetric meshes suitable for FEA. The International Archives of the Photogrammetry, Remote Sensing and Spatial Information Sciences 62(2): 331–338.
Guidi, Gabriele, Michele Russo, Jean-Angelo Beraldin. 2010. Acquisizione 3D e modellazione poligonale. Milan: McGraw-Hill.
Haala, Norbert, and Martin Kada. 2010. An update on automatic 3D building reconstruction. ISPRS Journal of Photogrammetry and Remote Sensing 65(6): 570–580.
Karmazyn, Halyna. 2017. Dal modello sperimentale al modello matematico. Graduate thesis in “Civil, Building and Environmental Engineering”, Departement of Engineering, Università degli Studi della Campania Luigi Vanvitelli.
Lima, Antonietta Iolanda, and Mario Arnaboldi. 2004. Ri-pensare Soleri. Milano, Italy: Jaca Books.
Rossi, Adriana. 2017. The Façade of Paolo Soleri’s Solimene Factory. Nexus Network Journal 19(2): 503–520.
Tang, Pingbo, Daniel Huber, Burcu Akinci, Robert Lipman, and Alan Lytle. 2010. Automatic reconstruction of as-built building information models from laser-scanned point clouds: a review of related techniques. Automation in Construction 19: 829–843.
ter Haar, Frank, Paolo Cignoni, Patrick Min, Remco Veltkamp. 2005. A comparison of systems and tools for 3D scanning. 3D Digital Imaging and Modeling: Applications of Heritage, Industry, Medicine and Land, Workshop Italy-Canada. http://vcg.isti.cnr.it/Publications/2005/TCMV05/WSH2005-24240.pdf. Accessed 02/12/2019.
Zampino, Giuseppe, ed. 1995. Gli spazi della ceramica (exhibition catalogue). Naples: Grimaldi & C. Editori.
Zevi, Bruno. 2010. Storia dell’architettura moderna, vol. II. Torino: Einaudi.
Acknowledgements
The research of Umberto Palmieri has been supported with funds from the University Luigi Vanvitelli under the Valere Plus programme, announcement D.R. 102 of 01/02/2019. The survey was carried out by by Halyna Karmazyn, scholar of extraordinary diligence, today an engineer. The English translation from the original Italian is by Giuseppina Nuzzo, lecturer, Department of Engineering the University of Campania “Luigi Vanvitelli”.
Author information
Authors and Affiliations
Corresponding author
Additional information
Publisher's Note
Springer Nature remains neutral with regard to jurisdictional claims in published maps and institutional affiliations.
About this article
Cite this article
Rossi, A., Palmieri, U. Modelling Based on a Certified Level of Accuracy: The Case of the Solimene Façade. Nexus Netw J 22, 615–630 (2020). https://doi.org/10.1007/s00004-019-00474-z
Published:
Issue Date:
DOI: https://doi.org/10.1007/s00004-019-00474-z