2016
DOI: 10.1016/j.jasrep.2016.05.054
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Digital elevation models from unmanned aerial vehicle surveys for archaeological interpretation of terrain anomalies: case study of the Roman castrum of Burnum (Croatia)

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Cited by 20 publications
(22 citation statements)
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“…Numerous publications discuss specific segments of the UAV-photogrammetry workflow; for example, flight planning and on-site execution (e.g., Field et al 2017; Hamilton and Stephenson 2016; Nex and Remondino 2014) and the accuracy of the models derived from photogrammetric analysis (e.g., Baliño 2016; Dubbini et al 2016; Harwin and Lucieer 2012; Lo Brutto et al 2014; Martínez-del-Pozo et al 2013; Mesas-Carrascosa et al 2016; Nocerino et al 2013; Ortiz et al 2013). While we appreciate these contributions for the precision, detail, and depth they offer to UAV research, as newcomers to drone-based archaeological survey, we were discouraged by the scarcer availability of publications that pragmatically discuss both field protocols and post-processing workflows to produce the two main outputs of UAV-based survey; namely, (1) digital models of topographic surfaces or monuments, and (2) orthophoto mosaics of excavations and landscapes (but see Chiabrando et al 2011; Fernández-Hernandez et al 2015; Turner et al 2012; Wernke et al 2014).…”
Section: Research Context and Background To Uav Surveymentioning
confidence: 99%
“…Numerous publications discuss specific segments of the UAV-photogrammetry workflow; for example, flight planning and on-site execution (e.g., Field et al 2017; Hamilton and Stephenson 2016; Nex and Remondino 2014) and the accuracy of the models derived from photogrammetric analysis (e.g., Baliño 2016; Dubbini et al 2016; Harwin and Lucieer 2012; Lo Brutto et al 2014; Martínez-del-Pozo et al 2013; Mesas-Carrascosa et al 2016; Nocerino et al 2013; Ortiz et al 2013). While we appreciate these contributions for the precision, detail, and depth they offer to UAV research, as newcomers to drone-based archaeological survey, we were discouraged by the scarcer availability of publications that pragmatically discuss both field protocols and post-processing workflows to produce the two main outputs of UAV-based survey; namely, (1) digital models of topographic surfaces or monuments, and (2) orthophoto mosaics of excavations and landscapes (but see Chiabrando et al 2011; Fernández-Hernandez et al 2015; Turner et al 2012; Wernke et al 2014).…”
Section: Research Context and Background To Uav Surveymentioning
confidence: 99%
“…They focused on the comparison between the Digital Surface Model created using an UAV with a Structure-from-Motion approach, and the digital terrain model already built through a kinematic Global Navigation Satellite System Survey (GNSS). The validation results provided a final vertical accuracy of about 10 cm, which implies that rotary wings are reliable in such aerial mapping task (Dubbini et al, 2016).…”
Section: Rotary Wingsmentioning
confidence: 77%
“…The digital surface models propose conceivable practices in the fields of natural hazards, disaster response and high-resolution terrain analysis as result of accomplishment of the high degree of autonomous framework and 20 cm level of unconditional vertical accuracy (Mancini et al, 2013). Dubbini et al (2016) presents a creation of a Digital Surface Mode from a low cost, user-friendly, automated hexacopter rotary wings. They focused on the comparison between the Digital Surface Model created using an UAV with a Structure-from-Motion approach, and the digital terrain model already built through a kinematic Global Navigation Satellite System Survey (GNSS).…”
Section: Rotary Wingsmentioning
confidence: 99%
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“…The use of photogrammetry has been demonstrated in various situations such as the detailed record of excavation levels, supplanting completely traditional drawing (Aguilar Camacho, Granado Castro, & Barrera Vera, 2013; Aparicio Resco, 2015; Douglass et al, 2015; Forte, Dell'unto, Jonsson, & Lercari, 2015); the survey of objects, both from field findings and from museum collections (Tsiafaki, Koutsoudis, Arnaoutoglou, & Michailidouet, 2016); outreach of 3D models in online viewers such as SketchFab, including the creation of virtual museums (Maqueda García‐Morales & Luque Cortina, 2015; Scopigno, Callieri, Dellepiane, Ponchio, & Potenziani, 2017); the survey of buildings, especially facades, but also for the drawing of architectural plans (Charquero Ballester, 2016; Parcero‐Oubiña et al, 2016); rock art (Jaillet, Delannoy, Monney, & Sadier, 2017); and the topographic and planimetric survey at the scale of archaeological sites as well as the geoforms of their location (Acosta Ochoa & Jiménez Delgado, 2013; Dubbini, Curzio, & Campedelli, 2016; Gutiérrez, Erny, Friedman, Godsey, & Gradoz, 2016; Ruiz Sabina, Gallego Valle, Peña Ruiz, Molero García, & Gómez Laguna, 2015). However, its use in Argentinean archaeology is very recent (Greco, 2018; Greco & Ojeda, 2017; Sampietro Vattuone & Peña Monné, 2018; Villar, 2018).…”
Section: Field Survey and Photogrammetric Reconstruction With Uavmentioning
confidence: 99%