ArcheoFOSS XIV 2020 : : Proceedings of the 14th International Conference, 15-17 October 2020.

• Author: Bogdani, Julian.
• TeilnehmendeR: Montalbano, Riccardo.; Rosati, Paolo.
• Place / Publishing House: Oxford : : Archaeopress,, 2021.; ©2021.
• Year of Publication: 2021
• Edition: 1st ed.
• Language: English
• Physical Description: 1 online resource (224 p.)

This volume represents the editorial outcome of the 14th edition of ArcheoFOSS international conference, which took place online between 15-17 October 2020. The event has been held annually since 2006 and is dedicated to the theoretical framework and actual application of free and open source softwa...

Table of Contents

• Cover
• Title Page
• Copyright Page
• Contents Page
• Foreword
• ArcheoFOSS 2020 Committees
• Strumenti digitali open-source per la documentazione della cultura visuale
• Michele Pellegrino, Donato Coppola
• Figura 1: a) Henri Breuil: rilievo diretto di un graffito parietale
• b) riproduzione a pastello di bovidi presso la Grotta di Altamira (Groenen 2018: figg. 10, 22).
• Figura 2: Grotta di Santa Maria di Agnano (Ostuni, BR): a) saggio di scavo archeologico (anno 2016)
• b) supporti calcarei con sintassi decorative geometrico-lineari rinvenute nel corso della campagna di scavo 2016 (Coppola et al. 2017: Figura 8).
• Figura 3: Grotta di Santa Maria di Agnano (Ostuni, BR): a) RTIbuilder, fase di detecting sphere
• b) RTIviewer: visualizzazione in modalità Specular Enhancement.
• Figura 4: Grotta di Santa Maria di Agnano (Ostuni, BR): a) Blender: lightdome virtuale con camera ortografica e mesh dell'oggetto
• b) RTIviewer: visualizzazione in Specular Enhancement del procedimento v-RTI.
• Figura 5: Grotta di Santa Maria di Agnano (Ostuni, BR): a-b) visualizzazione del dettaglio di un supporto calcareo con incisioni lineari non-figurative (SMA-test_2) in modalità Specular Enhancement [a) d.c. 90, sp. 05, h. s. 95
• b) d.c. 0, sp. 30, h. s. 1
• Valutazione integrata delle dinamiche di rischio di erosione del suolo
• Stefano De Angeli et al
• Figura 1: Struttura generale del sistema RESEARCH: catene di processamento e piattaforma Web-GIS (@RESEARCH Project).
• Tabella 1: Valori di vulnerabilità ed esposizione alla minaccia delle varie tipologie di evidenze archeologiche.
• Figura 2: Falerii Novi, area campione. Modello USPD: DTM finale con variazioni dei valori di altitudine (@RESEARCH Project).
• Figura 3: Falerii Novi, area campione. Mappa di minaccia dell'erosione del suolo (@RESEARCH Project).
• Figura 4: Falerii Novi, area meridionale. Restituzione 2D delle evidenze archeologiche individuate con valori di profondità dei singoli pixel (@RESEARCH Project).
• Figura 5: Falerii Novi, area meridionale. Mappa di vulnerabilità archeologica correlata alla minaccia di erosione del suolo (@RESEARCH Project).
• Figura 6: Falerii Novi, area campione. Mappa di rischio finale (@RESEARCH Project).
• Rome - NE Palatine slopes
• Emanuele Brienza, Giovanni Caratelli, Lorenzo Fornaciari, Cecilia Giorgi
• Figure 1: Rome, NE Palatine slopes. Orthophotomosaic produced by CNR at the end of the 2012 excavation campaign.
• Figure 2: Rome, NE Palatine slopes. Orthographic view of the new 3D model representing the 'Baths of Elagabalus' and Vigna Barberini's substructions.
• Figure 3: Rome, NE Palatine slopes. (a) Portion of the 3D model recently reprocessed with the CNR photographic archive, using multi-image photogrammetry
• (b) the same portion of 3D model integrated by processing dataset acquired in the last topographic an
• Figure 4: Rome, NE Palatine slopes. The new database on PostgreSQL/PostGIS performed on QGIS.
• Figure 5: Rome, NE Palatine slopes. A first WebGIS development carried out thanks to the gishosting service of the Gter company (https://www.gishosting.gter.it/home/).
• Figure 6: Rome, NE Palatine slopes. An example of exporting data in KML format and their integration in Google Earth platform.
• Un workflow open-source per l'elaborazione delle immagini termiche da drone
• Gabriele Ciccone
• Figura 1: Esempi di immagine RGB e IR e schema dei voli effettuati.
• Figura 2: Schema del workflow con software proprietari per l'elaborazione di immagini termiche.
• Figura 3: Schema del workflow con software free e open-source per l'elaborazione di immagini termiche.
• Figura 4: (a) Ortofoto in 4 bande (R, G, B, IR).
• (b) Ortofoto nella singola banda IR.
• Figura 5: Confronto di ortofoto in banda IR in differenti orari della stessa giornata.
• Analysis of urban mobility in 18th-century Rome
• Renata Ago, Domizia D'Erasmo
• Figure 1: a) A section of the strada della Valle as depicted in Nolli's map
• b) Example of a path that involves passing through a courtyard of a building in piazza Navona (base map: Nuova Topografia di Roma).
• Figure 2: Result of the vectorization of all analysed paths by GIS platform.
• Table 1: Extract of the first ten records of the table of attributes of private citizens' paths.
• Figure 3: a) List of ten paths of private citizens passing through a street adjacent to piazza della Rotonda
• b) vectorization result
• c) list of returned records (base map: Nuova Topografia di Roma).
• Figure 4: a) Vectorized paths around piazza della Rotonda
• b) transformation of lines into points set 10 m apart
• c) Kernel analysis (Base map: Nuova Topografia di Roma).
• Figure 5: Heatmap of ceremonial paths (14) of the 18th century (base maps: Nuova Topografia di Roma and Bing Satellite).
• Figure 6: a) Heatmap of home-business paths in 1739
• b) heatmap of home-business paths in 1749
• c) heatmap of home-business paths in 1739
• d) heatmap of home-business paths in 1749 (base maps: Nuova Topografia di Roma and Bing Satellite).
• Towards FreeCAD experimentation and validation
• Filippo Diara, Fulvio Rinaudo
• Figure 1: Knowledge processes: from metric survey (A) to stratigraphic survey and analysis (B and C), until the parametric model construction (D).
• Figure 2: FreeCAD platform and parametric model of the refectory with stratigraphic units.
• Figure 3: Stratigraphic diagrams implemented as semantic data (Harris Matrix of north wall of the refectory of medieval Staffarda Abbey).
• Figure 4. SQL query by using Reporting workbench and statement configuration: selection of stone elements and their description (result on CSV).
• FLOS for Museums: open solutions to train communities and manage heritage sites
• Paolo Rosati
• N.
• Name
• Description
• 1
• Evolution
• To evolve the museum space and its exhibits digitally, and mediate a new kind of knowledge (STEAM).
• 2
• Empowering
• To empower the scientific segments and the editorial management of the heritage institution, writing about new discoveries and filing patents.
• 3
• Interconnection
• To build an interconnection between the museum and the neighbors of the city, creating stable and operative communities nearby the institution.
• 4
• Economic growth
• To teach self-employment techniques helping family economies from a start-up level.
• 5
• Return school
• To reach out to young people prone to early school leaving, projecting open spaces with a FLOS habitat for them, which can stimulate their curiosity and spirit of believing in themselves.
• 6
• Lifestyle rank
• To increase in the museum communities the need of a plain cultural existence and growth in lifestyle ranking.
• 7
• Deep study
• To explore deeply with the communities the collections.
• 8
• Museum Economy
• To enrich the museum economy with new editorial products, open-access, online catalogues, linked open-data for projecting new web services for the online communities.
• 9
• Research
• To let to the citizens, investigate the daily fundamental role of the researchers and rise the appreciation on the great developments of science.
• 10
• Challenges
• To educate communities in solidarity, equality, environmental importance, and green habits (as reuse, recycling and self-made skills).
• Table 1: Top 10 practices for the 21st-century museums, based on the study of the author during the case studies (infra 3).
• N.
• Museum/
• Archaeological site
• Project name
• Place/s
• Year/s
• Main activities
• 1
• 2
• 3
• 4
• 5
• 6
• Table 2: The six activities by Una Quantum in cultural heritage management using FLOSS tools.
• Classroom Name
• Number of Classes
• Software/code
• Average age
• Participants
• Coding
• 3
• JavaScript
• 32
• 9
• Photogrammetry
• 6
• Regard 3D Mesh Lab Cloud Compare
• 25
• 31
• 3D modelling
• 5
• Blender
• 23
• 29
• Geographical Information Systems (GIS)
• 6
• QGIS Pyarchinit
• 26
• 50
• Virtual Tour 360°
• 3
• Pannellum
• 23
• 15
• Tot. classrooms
• Tot. courses
• Tot. FLOSS Software
• Average age
• Tot.
• Participants
• 5
• 23
• 7
• 25.8
• 134
• Table 3: FLOSS classrooms in two-year activities at MUCIV, Rome.
• Table 4: Free access classrooms at MNETRU of Rome during the 'Circuiti' program
• Table 5: The digital excavation field-school.
• Table 6: Summer camp at the Museo Civico Archeologico Rodolfo Lanciani in Guidonia (Rome).
• Table 7: Building the Museo delle Culture 'Villa Garibaldi (MUDECU), GNU' site. Some free licensed CMS for museum sites.
• Table 8: Overview of FLOS software used, debugged, developed for training and labs in public museums.
• Table 9: Utility of FLOSS technologies in heritage-institution management.
• Table 10: The business model for developing techno-creative spaces.
• The virtual countryman. A GRASS-GIS tool for ancient cultivation recognition
• Augusto Palombini
• Figure 1: Virtual reconstruction of Iron Age and Roman landscapes in the Upper Tiber Valley (Arnoldus-Huydzendveld et al. 2012
• Pietroni et al. 2013).
• Figure 2: Flowchart of the landscape reconstruction pipeline, as conceived by the CNR Virtual Heritage Lab after the Tiber Valley Project.