Upper Cretaceous-Paleogene stratigraphy and development of the Mímir High, Vøring Transform Margin, Norwegian Sea

Transform margins represent strike-slip type of plate boundaries that form during continental breakup and initial ocean opening. They are often characterized by margin-parallel highs with exposed pre- and syn-rift sequences. The Vøring Transform Margin, offshore mid-Norway, initiated in the earliest...

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Veröffentlicht in:Marine and petroleum geology 2020-12, Vol.122, p.104717, Article 104717
Hauptverfasser: Polteau, Stéphane, Planke, Sverre, Zastrozhnov, Dmitry, Abdelmalak, Mohamed Mansour, Lebedeva-Ivanova, Nina, Planke, Ellen Eckhoff, Svensen, Henrik Hovland, Mazzini, Adriano, Gernigon, Laurent, Myklebust, Reidun, Kjølhamar, Bent Erlend, Pedersen, Rolf Birger, Sandstå, Nils Rune, Bünz, Stefan
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container_start_page 104717
container_title Marine and petroleum geology
container_volume 122
creator Polteau, Stéphane
Planke, Sverre
Zastrozhnov, Dmitry
Abdelmalak, Mohamed Mansour
Lebedeva-Ivanova, Nina
Planke, Ellen Eckhoff
Svensen, Henrik Hovland
Mazzini, Adriano
Gernigon, Laurent
Myklebust, Reidun
Kjølhamar, Bent Erlend
Pedersen, Rolf Birger
Sandstå, Nils Rune
Bünz, Stefan
description Transform margins represent strike-slip type of plate boundaries that form during continental breakup and initial ocean opening. They are often characterized by margin-parallel highs with exposed pre- and syn-rift sequences. The Vøring Transform Margin, offshore mid-Norway, initiated in the earliest Eocene during the opening of the NE Atlantic. Here, 2D seismic reflection data reveal a transform margin high, the Mímir High. The western flank of this undrilled structure is a kilometer-high escarpment where seismic reflections of pre-breakup age are truncated at the seafloor. The aim of this study was to recover seabed rock samples from the outcropping or shallowly buried sedimentary sequences to provide a geological tie to the regional seismic framework, thereby constraining the basin history and tectono-stratigraphic development. Seabed samples were successfully collected from 14 gravity core and Selcore stations and 10 ROV (remotely operated vehicle) sites along a 750 m high sampling profile, recovering clay, shales, sandstones and glacial dropstones. Biostratigraphy results revealed that the ages of the sedimentary rocks follow the stratigraphic order predicted by the initial seismic interpretation, with Upper Cretaceous sediments at the base and lower Eocene sediments at the top. The integrated interpretation shows that the Mímir High area, including parts of the outer Vøring and Møre basins and the proto-Jan Mayen Microplate Complex, were characterized by the deposition of late Campanian to early Maastrichtian, near coastal and shale-dominated sequences with poor source rock qualities. The early Paleocene samples indicate deep marine conditions that abruptly ended by rapid uplift of the Mímir High in the earliest Eocene. Finally, a reworked Pliensbachian palynomorph assemblage in potential early Eocene strata indicate the presence of exposed Mesozoic sequences in the vicinity of the Mímir High. We argue that some of the lower Eocene sediments where deposited within a hypothetical drainage system sourced from Greenland (Traill Ø or Jameson Land) and/or from the Jan Mayen Ridge prior to continental separation, and not the result of recent ice-rafting. •Seafloor sampling allows the construction of pseudo-wells in undrilled sedimentary basins.•Gravity coring can recover subcrops covered by up to 3 m of recent overburden sediments.•Sampling outcrops using an ROV is very powerful, but limited to exposed outcrops.•Late Cretaceous to Early Eocene sediments and
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1873-4073
1873-4073
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source NORA - Norwegian Open Research Archives; Elsevier ScienceDirect Journals Complete
subjects Cretaceous
NE Atlantic
Paleogene
Seafloor sampling
Transform margin
title Upper Cretaceous-Paleogene stratigraphy and development of the Mímir High, Vøring Transform Margin, Norwegian Sea
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