Lava flow field development and lava tube formation during the 1858–1861 eruption of Vesuvius (Italy), unravelled by historical documentation, lidar data and 3D mapping

Somma-Vesuvius is well known for its powerful Plinian explosive eruptions, however during the last eruptive cycle (1631–1944), persistent activity took place on the stratovolcano as mild and violent Strombolian, and effusive eruptions, forming more than one hundred lava flow fields. An important mechanism of lava transport within lava flow fields is the formation and development of lava tubes. The presence of lava tubes in a flow field can greatly increase their distance of emplacement. Observations of lava tubes at Vesuvius have been documented in historical records and speleological reports but no modern scientific studies are available. This work focuses on lava tubes formed in the compound lava flow field of the long-lived 1858 eruption (from 27 May 1858 to 12 April 1861) that was fed by seven eruptive fissures. The temporal and spatial evolution of the 1858 lava flow field was reconstructed using historical documentation. The exposed lava flow field surface was analysed using a 1-m resolution lidar Digital Surface Model (DSM). Surveys to fully digitize the interior and the overlying surface of the largest lava tube found in the 1858 lava flow field were conducted using a terrestrial laser scanner, optical cameras, and an Unmanned Aerial Vehicle (UAV). The accurate 3D model obtained was used to precisely quantify the inner dimensions and to better constrain the morphologies of the lava tube. Observed internal features were described and used to gain information on the formation and activity of the lava tube. Our data allowed us to understand that the described lava tube formed as an inflated lava flow inside which lava flowed through during an extended period ultimately draining out completely at the end of the eruption. Understanding how lava flow fields develop and how lava tubes form on Vesuvius is crucial to re-evaluate the last effusive activity of the volcano and its impact on hazard assessment. • Spatial and temporal reconstruction of the 1858 lava flow field at Vesuvius. • Lava tubes characterisation in the 1858 lava flow field at Vesuvius. • Advanced 3D digitization of the largest lava tube interior and overlying surface. • Proposition of lava tubes formation mechanism.

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Publication Details

Journal
Journal of Volcanology and Geothermal Research
Published
2024-09-30
DOI
https://doi.org/10.1016/j.jvolgeores.2024.108197
Citations
10
Primary Topic
Geology and Paleoclimatology Research
Type
article
Field-Weighted Citation Impact
3.76
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article

Lava flow field development and lava tube formation during the 1858–1861 eruption of Vesuvius (Italy), unravelled by historical documentation, lidar data and 3D mapping

Sonia Calvari, Thomas Lemaire, Daniele Morgavi, Paola Petrosino et al.
10 citations
Journal of Volcanology and Geothermal Research
Geology and Paleoclimatology Research
3.76
article

Lava flow field development and lava tube formation during the 1858–1861 eruption of Vesuvius (Italy), unravelled by historical documentation, lidar data and 3D mapping

Sonia Calvari, Thomas Lemaire, Daniele Morgavi, Paola Petrosino, Diego Di Martire, Francesco Frondini, Vincenzo Brescia Morra, Lorenzo Esposito
article en
10 citations

Abstract

Somma-Vesuvius is well known for its powerful Plinian explosive eruptions, however during the last eruptive cycle (1631–1944), persistent activity took place on the stratovolcano as mild and violent Strombolian, and effusive eruptions, forming more than one hundred lava flow fields. An important mechanism of lava transport within lava flow fields is the formation and development of lava tubes. The presence of lava tubes in a flow field can greatly increase their distance of emplacement. Observations of lava tubes at Vesuvius have been documented in historical records and speleological reports but no modern scientific studies are available. This work focuses on lava tubes formed in the compound lava flow field of the long-lived 1858 eruption (from 27 May 1858 to 12 April 1861) that was fed by seven eruptive fissures. The temporal and spatial evolution of the 1858 lava flow field was reconstructed using historical documentation. The exposed lava flow field surface was analysed using a 1-m resolution lidar Digital Surface Model (DSM). Surveys to fully digitize the interior and the overlying surface of the largest lava tube found in the 1858 lava flow field were conducted using a terrestrial laser scanner, optical cameras, and an Unmanned Aerial Vehicle (UAV). The accurate 3D model obtained was used to precisely quantify the inner dimensions and to better constrain the morphologies of the lava tube. Observed internal features were described and used to gain information on the formation and activity of the lava tube. Our data allowed us to understand that the described lava tube formed as an inflated lava flow inside which lava flowed through during an extended period ultimately draining out completely at the end of the eruption. Understanding how lava flow fields develop and how lava tubes form on Vesuvius is crucial to re-evaluate the last effusive activity of the volcano and its impact on hazard assessment. • Spatial and temporal reconstruction of the 1858 lava flow field at Vesuvius. • Lava tubes characterisation in the 1858 lava flow field at Vesuvius. • Advanced 3D digitization of the largest lava tube interior and overlying surface. • Proposition of lava tubes formation mechanism.

Journal of Volcanology and Geothermal ResearchVol. 455
University of Perugia (IT), Istituto Nazionale di Geofisica e Vulcanologia (IT), Istituto Nazionale di Fisica Nucleare, Sezione di Napoli (IT)
Openalex Percentile: Top 6%
Geology and Paleoclimatology Research
3.76
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