The Submarine Boundaries of Mount Etna’s Unstable Southeastern Flank
Language
English
Obiettivo Specifico
2V. Struttura e sistema di alimentazione dei vulcani
Status
Published
JCR Journal
JCR Journal
Peer review journal
Yes
Journal
Issue/vol(year)
/10 (2022)
Publisher
Frontiers Media S.A.
Pages (printed)
810790
Date Issued
March 2022
Abstract
Coastal and ocean island volcanoes are renowned for having unstable flanks. This can lead to flank deformation on a variety of temporal and spatial scales ranging from slow creep to catastrophic sector collapse. A large section of these unstable flanks is often below sea level, where information on the volcano-tectonic structure and ground deformation is limited. Consequently, kinematic models that attempt to explain measured ground deformation onshore associated with flank instability are poorly constrained in the offshore area. Here, we attempt to determine the locations and the morpho-tectonic structures of the boundaries of the submerged unstable southeastern flank of Mount Etna (Italy). The integration of new marine data (bathymetry, microbathymetry, offshore seismicity, reflection seismic lines) and published marine data (bathymetry, seafloor geodesy, reflection seismic lines) allows identifying the lineament north of Catania Canyon as the southern lateral boundary with a high level of confidence. The northern and the distal (seaward) boundaries are less clear because no microbathymetric or seafloor geodetic data are available. Hypotheses for their locations are presented. Geophysical imaging suggests that the offshore Timpe Fault System is a shallow second-order structure that likely results from extensional deformation within the moving flank. Evidence for active uplift and compression upslope of the amphitheater-shaped depression from seismic data along with subsidence of the onshore Giarre Wedge block observed in ground deformation data leads us to propose that this block is a rotational slump, which moves on top of the large-scale instability. The new shoreline-crossing structural assessment may now inform and improve kinematic models.
References
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Del Negro, C., & Napoli, R. (2002). Ground and marine magnetic surveys of the lower eastern flank of Etna volcano (Italy). Journal of volcanology and geothermal research, 114(3-4), 357-372.
De Novellis, V., Atzori, S., De Luca, C., Manzo, M., Valerio, E., Bonano, M., ... & Casu, F. (2019). DInSAR analysis and analytical modeling of Mount Etna displacements: The December 2018 volcano‐tectonic crisis. Geophysical Research Letters, 46(11), 5817-5827.
Dieterich, J., Cayol, V., & Okubo, P. (2000). The use of earthquake rate changes as a stress meter at Kilauea volcano. Nature, 408(6811), 457-460.
Gambino S., Bonforte A., Carnazzo A., Falzone G., Ferrari F., Ferro A., Guglielmino F., Laudani G., Maiolino V., Puglisi G., 2011. Displacement across the Trecastagni fault (Mt. Etna) and induced seismicity: the October 2009 to January 2010 episode. Ann. Geophys., 54
Groppelli, G., & Tibaldi, A. (1999). Control of rock rheology on deformation style and slip-rate along the active Pernicana Fault, Mt. Etna, Italy. Tectonophysics, 305(4), 521-537.
Gross, F., S. Krastel, J. Geersen, J. H. Behrmann, D. Ridente, F. L. Chiocci, J. Bialas,C. Papenberg, D. Cukur, M. Urlaub, A. Micallef (2016), The limits of seaward spreading and slope instability at the continental margin offshore Mt Etna, imaged by high resolution 2D seismic data. Tectonophysics 667, 63–76.
Gutscher, M. A., Dominguez, S., de Lepinay, B. M., Pinheiro, L., Gallais, F., Babonneau, N., ... & Rovere, M. (2016). Tectonic expression of an active slab tear from high‐resolution seismic and bathymetric data offshore Sicily (Ionian Sea). Tectonics, 35(1), 39-54.
Gutscher, M. A., Kopp, H., Krastel, S., Bohrmann, G., Garlan, T., Zaragosi, S., ... & Sallares, V. (2017). Active tectonics of the Calabrian subduction revealed by new multi-beam bathymetric data and high-resolution seismic profiles in the Ionian Sea (Central Mediterranean). Earth and Planetary Science Letters, 461, 61-72.
Gvirtzman, Z., and A. Nur, The formation of Mount Etna as the consequence of slab rollback, Nature, 401, 782– 785, 1999a.
Havskov, J., and L. Ottemoeller (1999), SeisAn Earthquake analysis Software, Seismological Res. Lett., 70, 532- 534, doi: 10.1785/gssrl.70.5.532.
Jones, C. H., & Wesnousky, S. G. (1992). Variations in strength and slip rate along the San Andreas fault system. Science, 256(5053), 83-86.
Krastel, S. and cruise participants (2014) Seismogenic faults, landslides, and associated tsunamis off southern Italy. Cruise No. M86/2 – November 21, 2011 – January 17, 2012 – Cartagena (Spain) – Brindisi (Italy). METEOR-Berichte, M86/2, 49 pp, DFG-Senatskommission für Ozeanographie, DOI: 10.2312/cr_m86_2.
Krastel, S. (2016) RV POSEIDON-CRUISE POS496, Malaga – Catania, 24.03.2016 - 04.04.2016, Short Cruise Report: MAGOMET - Offshore flank movement of Mount Etna and associated landslide hazard in the Ionian Sea (Mediterranean Sea) . Christian-Albrechts-Universität zu Kiel, Institute of Geosciences, 8 pp. DOI 10.3289/SCR_POS_496
Lanzafame G., Neri M., Rust D., 1996. A preliminary structural evaluation of recent tectonic activity on the eastern flank of Mount Etna, Sicily., West Lond. Pap. Environ. Stud., 3, 73-90
Liu, C., Lay, T., & Xiong, X. (2018). Rupture in the 4 May 2018 MW 6.9 earthquake seaward of the Kīlauea East Rift Zone fissure eruption in Hawaii. Geophys Res Lett, 45(18), 9508-9515.
Lomax, A., Virieux, J., Volant, P., & Berge-Thierry, C. (2000). Probabilistic Earthquake Location in 3D and Layered Models. Advances in seismic event location (Vol. 18, pp. 101–134).
Morgan, J. K., Moore, G. F., & Clague, D. A. (2003). Slope failure and volcanic spreading along the submarine south flank of Kīlauea volcano, Hawaii. J Geophys Res, 108(B9).
Neri, M., Acocella, V., & Behncke, B. (2004). The role of the Pernicana Fault System in the spreading of Mt. Etna (Italy) during the 2002–2003 eruption. Bulletin of Volcanology, 66(5), 417-430.
Neri, M., Rivalta, E., Maccaferri, F., Acocella, V., & Cirrincione, R. (2018). Etnean and Hyblean volcanism shifted away from the Malta Escarpment by crustal stresses. Earth and Planetary Science Letters, 486, 15-22.
Palano, M. (2016). Episodic slow slip events and seaward flank motion at Mt. Etna volcano (Italy). Journal of Volcanology and Geothermal Research, 324, 8-14.
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