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Volume 36, Issue 1
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Abstract

[

(a) Photo showing a panoramic view of the sedimentary architecture of the Rocchenere delta system fan delta deposits of the Messina Gravel and Sands Formation located at the outlet of the tight source‐to‐sink system of the Pagliara basin (b). Sequence and facies boundaries, as well as foresets layering, measured sections and IRSL samples location are also reported. The sampled stratigraphy shows alternation of massive and stratified sedimentary facies, stacked in coarsening‐up meter‐scale bed sets with opposing dips. Numbers refers to the sampled sections of the sequence; (c) the reconstructed and simplified stratigraphic section is also shown by a color's palette according with the deposits’ grain size. The numbers in red refer to the corresponding portion of the measured section, whereas the red asterisks with letters refers to the location along the section of the corresponding facies shown in the pictures of Figure 3b–d above. The dark blue dots represent the gauging stations for sedimentological measurements, whereas the differently open grey triangle, side of the stratigraphic column, indicate the measured paleo‐flow direction. Note that the tringles are open towards the paleo‐flow direction and their openness is related to the total angle range provided by multiple measures at the same gauging location. (d) Rose diagram showing the paleo‐flow direction (shaded area) measurements ( = 29) carried out at different location along the stratigraphic sequence (c). More intense color corresponds to more represented azimuths. Overlapped is the Pagliara fan cone angle (dotted dark red lines).

, Abstract

How tectonic forcing, expressed as base level change, is encoded in the stratigraphic and geomorphic records of coupled source‐to‐sink systems remains uncertain. Using sedimentological, geochronological and geomorphic approaches, we describe the relationship between transient topographic change and sediment deposition for a low‐storage system forced by rapid rock uplift. We present five new luminescence ages and two terrestrial cosmogenic nuclide paleo‐erosion rates for the late Pleistocene Pagliara fan‐delta complex and we model corresponding base level fall history and erosion of the source catchment located on the Ionian flank of the Peloritani Mountains (NE‐Sicily, Italy). The Pagliara delta complex is part of the broader Messina Gravel‐and‐Sands lithostratigraphic unit that outcrops along the Peloritani coastal belt as extensional basins have been recently inverted by both normal faults and regional uplift at the Messina Straits. The deltas exposed at the mouth of the Pagliara River have constructional tops at ca. 300 m a.s.l. and onlap steeply east‐dipping bedrock at the coast to thickness between ca. 100 and 200 m. Five infrared‐stimulated luminescence (IRSL) ages collected from the delta range in age from ca. 327 to 208 ka and indicate a vertical long‐term sediment accumulation rate as rapid as ca. 2.2 cm/yr during MIS 7. Two cosmogenic 10Be concentrations measured in samples of delta sediment indicate paleo‐erosion rates during MIS 8–7 near or slightly higher than the modern rates of ca. 1 mm/yr. Linear inversion of Pagliara fluvial topography indicates an unsteady base level fall history in phase with eustasy that is superimposed on a longer, tectonically driven trend that doubled in rate from ca. 0.95 to 1.8 mm/yr in the past 150 ky. The combination of footwall uplift rate and eustasy determines the accommodation space history to trap the fan‐deltas at the Peloritani coast in hanging wall basins, which are now inverted, uplifted and exposed hundreds of metres above the sea level.

]
Basin Research © 2024 John Wiley & Sons Ltd, European Association of Geoscientists & Engineers and International Association of Sedimentologists © 2024 The Authors. Basin Research published by International Association of Sedimentologists and European Association of Geoscientists and Engineers and John Wiley & Sons Ltd.
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Integrated uplift, subsidence, erosion and deposition in a tightly coupled source‐to‐sink system, Pagliara basin, northeastern Sicily, Italy
Basin Research 36, e12845 (2024); https://doi.org/10.1111/bre.12845
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