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Vettore-Bove fault zone

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Series: GSA Special Papers
Published: 21 June 2022
DOI: 10.1130/2022.2557(06)
EISBN: 9780813795577
... activated various segments of a ~60-km-long fault zone, which includes the ~30-km-long VettoreBove fault system (VBFS). The largest was the 30 October M w 6.5 earthquake, which was preceded by a M w 5.9 earthquake on 26 October ( Fig. 1 ). EMERGEO Working Group (2017) and Villani et al. (2018...
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(a) Location map of the area in (b). (b) Map of the relief and simplified structural map of the Central Apennines showing schematically the trace of the Quaternary and/or active normal fault systems affecting the axial zone of the chain and the main thrusts (after Boncio et al. 2004, Pizzi and Galadini 2009). Mt. Vettore–Mt. Bove (VBF) and Laga (LF) faults (marked blue lines) were involved in the 2016–2017 seismic sequence.
Published: 01 November 2018
, Pizzi and Galadini 2009 ). Mt. Vettore–Mt. Bove (VBF) and Laga (LF) faults (marked blue lines) were involved in the 2016–2017 seismic sequence.
Journal Article
Published: 01 October 2013
Italian Journal of Geosciences (2013) 132 (3): 497–520.
... out significantly in the Fiastrone (near Bolognola) and Ambro valleys, in the high valley of the Ussita river and in the Mt. Vettore-Mt. Macchialta area. These successions generally onlap the Jurassic fault-scarps, as shown along the Fiastrone valley (Bolognola), at Mt. Valvasseto and Mt. Bove Nord...
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Journal Article
Published: 01 November 2018
Earthquake Spectra (2018) 34 (4): 1585–1610.
... , Pizzi and Galadini 2009 ). Mt. Vettore–Mt. Bove (VBF) and Laga (LF) faults (marked blue lines) were involved in the 2016–2017 seismic sequence. ...
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Journal Article
Published: 01 November 2018
Earthquake Spectra (2018) 34 (4): 1557–1583.
... fault models (using GPS, interferometric aperture radar, and ground motion data), and surface rupture patterns, all point to the earthquakes having been generated on the Mt. Vettore–Mt. Bove fault system (all three main shocks) and on the Amatrice fault, in the northern sector of the Laga Mountains...
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(a) Normal faults (from Pierantoni et al. 2013) and Quaternary/active normal faults (from Calamita et al. 1992, Pizzi 1992) mapped in the southernmost sector of the Mt. Vettore–Mt. Bove fault system (Mt. Vettoretto area, see Figure 3). MST: Sibillini Mts thrust. (b) Sketch of the observed coseismic ruptures, which reflected the pre-existing en-échelon pattern of bedrock faults already mapped in the literature. Several NNW-SSE-trending en-échelon ruptures developed at the relay zone between the NW-SE-trending bedrock faults, suggesting incipient fault linkage. (c) Coseismic ruptures occurred during both the 24 August and 30 October 2016 events (white arrows). Complex surface rupture patterns and more distributed deformations characterized this portion of the fault, where no clear bedrock scarps outcrop and where active faults can be recognized due to the presence of morphologic/geologic evidence, such as elongate depressions, saddles, and accumulation of rock debris at the base of periodically exposed bedrock-free faces.
Published: 01 November 2018
Figure 5. (a) Normal faults (from Pierantoni et al. 2013 ) and Quaternary/active normal faults (from Calamita et al. 1992 , Pizzi 1992 ) mapped in the southernmost sector of the Mt. Vettore–Mt. Bove fault system (Mt. Vettoretto area, see Figure 3 ). MST: Sibillini Mts thrust. (b) Sketch
Journal Article
Published: 01 November 2018
Earthquake Spectra (2018) 34 (4): 1547–1555.
... of the Apennines affected by the Central Italy events are undergoing extension accommodated by numerous normal faults, many of which are well expressed at the surface. Galadini et al. (2018) show that the main shock events occurred on the Mt. Vettore–Mt. Bove fault system and the Amatrice fault in the Laga...
FIGURES
Journal Article
Published: 29 March 2017
Seismological Research Letters (2017) 88 (3): 757–771.
.... In addition, on top of this structure, we observe that the shallower seismicity is almost confined within the northern sector, north of Mt. Vettore. This area is along strike confined by the presence of the OAS thrust front having the Mt. Vettore–Mt. Bove normal fault located on its hanging wall. Even...
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(a) Redrawn from Wang et al. (2019) with overlapped directivity index (Dindex, yellow arrows). The inset in the top right corner shows the comparison between the same seismic events of Wang et al. (2019) and this study. (b) Map of the epicentral area showing main active normal faults (redrawn from Improta et al., 2019). Yellow lines represent west‐dipping fault, blue lines represent east‐dipping faults, yellow bold lines represent Laga fault system, red solid lines represent coseismic surface rupture along the Vettore‐Bove fault system, the black barbed lines represent Miocene Pliocene thrust, red stars represent the three mainshocks, and yellow stars represent M 5+ events. Yellow arrows correspond to the directivity index. (c) VP/VS layers at 3 (left) and 6 (right) km depth (redrawn from Chiarabba et al., 2018). The aftershocks and mainshocks (stars) occurring at ±1.5 km from each layer are shown. The gray lines are the main thrust of the system and St denotes Sibillini thrust modified from Bigi et al. (2011). The dashed lines are the tip of the blind ramps at depth. Magenta line is a well‐resolved area. SH, Laga structural high. The seismic events analyzed in this study are superimposed on the four panels. The yellow arrows correspond to the main directions (Dindex) of the rupture directivity of the seismic events with Mw>5. The yellow arrows point toward the zone with high VP/VS (low VS). The color version of this figure is available only in the electronic edition.
Published: 10 April 2023
active normal faults (redrawn from Improta et al. , 2019 ). Yellow lines represent west‐dipping fault, blue lines represent east‐dipping faults, yellow bold lines represent Laga fault system, red solid lines represent coseismic surface rupture along the VettoreBove fault system, the black barbed lines
Journal Article
Journal: GSA Bulletin
Published: 14 December 2020
GSA Bulletin (2021) 133 (7-8): 1679–1694.
... ). After the 2016-Amatrice-Visso-Norcia mainshocks, surface faulting was observed along several faults that had been previously mapped as active and capable, belonging to the Monte Vettore-Monte Bove fault system ( Calamita and Pizzi, 1994 ; Cello et al., 1997 ; Pizzi et al., 2002 ; Pierantoni et al...
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Journal Article
Journal: GSA Bulletin
Published: 18 July 2024
GSA Bulletin (2025) 137 (1-2): 341–350.
... for events M w > 4.7 indicate predominantly normal faulting, consistent with the overall tectonics of the Apennines. Both earthquake sequences activated a considerable number of fault systems in the Central Apennines. These include, from north to south, Colfiorito, Norcia, Mt. Vettore–Mt. Bove faults...
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Journal Article
Published: 09 August 2023
Seismological Research Letters (2023) 94 (6): 2642–2654.
... that sections 1–4, perpendicular to the M w  6.5 fault, rotate southward, whereas sections 5 and 6 are perpendicular to the M w  6.1 event. The red, bold, and light lines are the Sibillini thrust (Sib‐t) and the VettoreBove normal fault (Vf) at the surface, respectively. The black arrows point...
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Journal Article
Published: 28 December 2021
Bulletin of the Seismological Society of America (2022) 112 (2): 992–1007.
... ). This pre‐existing structural barrier is interposed between two different faults involved in the 2016–2017 sequence, namely the Mt. Vettore–Mt. Bove fault system (MVBF) and the Laga Mts fault system, respectively, located at the hanging wall and the footwall of the MST. This system juxtaposes the Triassic...
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Journal Article
Journal: GSA Bulletin
Published: 21 August 2023
GSA Bulletin (2024) 136 (3-4): 1605–1627.
... and electron-backscatter diffraction analyses revealed that whereas the localized principal slip zone records seismic slip (as ultracataclastic material, calcite crystallographic preferred orientation (CPO), and truncated clasts), the bulk fault rock below behaves differently. Cataclasites in massive...
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Journal Article
Published: 04 May 2021
The Seismic Record (2021) 1 (1): 11–19.
... occurs on critically stressed faults. Delineated major fault zones are relatively thick compared to estimated earthquake location uncertainties, and a large number of kilometer‐long faults and diffuse seismicity were activated during the sequence. These properties might be related to fault age, roughness...
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Journal Article
Published: 01 June 2009
Italian Journal of Geosciences (2009) 128 (2): 367–380.
... with epicentral Intensity (MCS scale) larger than V–VI (from W orking G roup CPTI, 2004 ), earthquake focal mechanisms available in the literature and traces of active normal and normal-oblique faults. Active faults (according to B oncio et alii, 2004a , with references): 1a) M. Bove, 1b) M. Vettore, 2) M...
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Journal Article
Published: 09 August 2017
Seismological Research Letters (2017) 88 (5): 1219–1231.
... mainshocks of the central Italy sequence occurred along a fault alignment that extends from Mt. Vettore to Mt. Bove to Mt. Gorzano (VBF and LF, respectively, in Fig.  2 ). It lies to the east of the alignment that develops from Gubbio to Colfiorito, and extends as far as the area struck by the 2009 L’Aquila...
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Journal Article
Published: 01 February 2006
Bulletin of the Seismological Society of America (2006) 96 (1): 107–132.
... et al. , 2003 ; P96, Pantosti et al. , 1996 ; S03, Salvi et al. , 2003 ; V01, Valensise and Pantosti, 2001 . 1 Bove-Vettore 35.0 15.0 19.6 686 0.5 G03a 2 Gorzano 28.4 15.0 19.6 557 0.3 G03a 3 Gran Sasso 28.7 15.0 19.6 563 0.8 G03b; G95 4 Gubbio 23.64 (20.9...
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Journal Article
Published: 01 November 2018
Earthquake Spectra (2018) 34 (4): 1693–1719.
.... Vettore Fault Event Stations: V S 30 (m/s) TERO 660 MSC 540 PCB 366 SPM 1000 CSC 698 NOR 687 August PHGA (g) 0.09 0.05 0.13 0.07 0.06 0.19 M6.1 PHGV (cm/s) 4.29 1.43 5.49 3.02 2.01 21.09 NS I a (m/s) 0.08 0.02 0.21 0.05 0.03 0.34 CAV (cm/s...
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Journal Article
Published: 01 October 2023
Italian Journal of Geosciences (2023) 142 (3): 339–358.
... established since Late Miocene and is responsible for the presently active normal faulting affecting the axial zone of the chain (e.g.,  Cello et al., 1997 ; Barchi et al., 2000 ; Tondi & Cello, 2003 ; Pondrelli et al., 2006 ; Mariucci & Montone, 2020 ). Here, instrumental and historical...
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