2015
DOI: 10.17850/njg95-2-01
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From terrestrial to shallow-marine depositional environments: reconstruction of the depositional environments during the Late Carboniferous transgression of the Lomfjorden Trough in NE Spitsbergen (Malte Brunfjellet Formation)

Abstract: Sedimentary rocks of the Upper Carboniferous Malte Brunfjellet Formation are investigated in five sections, located on a N-S-oriented transect along the Lomfjorden Fault Zone in eastern Spitsbergen. Results of facies and microfacies analysis led to a redefinition of the Malte Brunfjellet Formation, and formerly unspecified Carboniferous sedimentary rocks in the investigated area are now assigned to this formation. In the northern part of the Lomfjorden Trough, the Malte Brunfjellet Formation consists of a 41 m… Show more

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Cited by 4 publications
(5 citation statements)
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“…In mid-Cenozoic times, ENE-WSW-oriented contractionaltranspressional deformation related to continental breakup and subsequent opening of the northeast Atlantic Ocean formed subhorizontal NW-to NNW-trending folds (Bergh et al, 1997;Bergh and Grogan, 2003) and inverted major normal faults, resulting in the formation of the West Spitsbergen fold-and-thrust belt (Harland, 1969;Lowell, 1972;Harland et al, 1974;Haremo et al, 1990;Dallmann et al, 1993;Dißmann and Grewing, 1997). Cenozoic dextral transpression and contraction reactivated preexisting, margin- Gee et al (1952), McWhae (1953), Playford (1962), Cutbill and Challionor (1965), Holliday and Cutbill (1972), Cutbill et al (1976), Johannessen (1980), Gjelberg (1981Gjelberg ( , 1984, Gjelberg and Steel (1981), Johannessen and Steel (1992), Lønøy (1995), Dallmann (1999), , and Scheibner et al (2015). parallel, N-S-trending Caledonian and margin-oblique NW-SE-to NNW-SSE-trending Svalbardian (Ellesmerian) folds and thrusts (Bergh et al, 1997;Blinova et al, 2012Blinova et al, , 2013 and inverted Devonian-Carboniferous normal faults such as the BFZ, making fault offsets difficult to resolve.…”
Section: Cenozoic Fold and Thrust Beltmentioning
confidence: 99%
“…In mid-Cenozoic times, ENE-WSW-oriented contractionaltranspressional deformation related to continental breakup and subsequent opening of the northeast Atlantic Ocean formed subhorizontal NW-to NNW-trending folds (Bergh et al, 1997;Bergh and Grogan, 2003) and inverted major normal faults, resulting in the formation of the West Spitsbergen fold-and-thrust belt (Harland, 1969;Lowell, 1972;Harland et al, 1974;Haremo et al, 1990;Dallmann et al, 1993;Dißmann and Grewing, 1997). Cenozoic dextral transpression and contraction reactivated preexisting, margin- Gee et al (1952), McWhae (1953), Playford (1962), Cutbill and Challionor (1965), Holliday and Cutbill (1972), Cutbill et al (1976), Johannessen (1980), Gjelberg (1981Gjelberg ( , 1984, Gjelberg and Steel (1981), Johannessen and Steel (1992), Lønøy (1995), Dallmann (1999), , and Scheibner et al (2015). parallel, N-S-trending Caledonian and margin-oblique NW-SE-to NNW-SSE-trending Svalbardian (Ellesmerian) folds and thrusts (Bergh et al, 1997;Blinova et al, 2012Blinova et al, , 2013 and inverted Devonian-Carboniferous normal faults such as the BFZ, making fault offsets difficult to resolve.…”
Section: Cenozoic Fold and Thrust Beltmentioning
confidence: 99%
“…Unlike the δ 34 S CAS anomaly in the upper Mørebreen Member, no δ 34 S CAS values in the Early Permian change abruptly in response to short-lived variations in depositional environment, but CAS δ 34 S values and their point-to-point variability increase steadily during the Sakmarian to Artinskian sea-level fall in this area (Scheibner et al, 2015;Fig. 6).…”
Section: Considerations For Regional Controlsmentioning
confidence: 94%
“…In mid-Cenozoic times, ENE-WSW-oriented contractionaltranspressional deformation related to continental breakup and subsequent opening of the northeast Atlantic Ocean formed subhorizontal NW-to NNW-trending folds (Bergh et al, 1997;Bergh and Grogan, 2003) and inverted major normal faults, resulting in the formation of the West Spitsbergen fold-and-thrust belt (Harland, 1969;Lowell, 1972;Harland et al, 1974;Haremo et al, 1990;Dallmann et al, 1993;Dißmann and Grewing, 1997). Cenozoic dextral transpression and contraction reactivated preexisting, margin- Gee et al (1952), McWhae (1953, Playford (1962), Cutbill and Challionor (1965), Holliday and Cutbill (1972), Cutbill et al (1976), Johannessen (1980, Gjelberg (1981Gjelberg ( , 1984, Gjelberg and Steel (1981), Johannessen and Steel (1992), Lønøy (1995), Dallmann (1999), Scheibner et al (2015). parallel, N-S-trending Caledonian and margin-oblique NW-SE-to NNW-SSE-trending Svalbardian (Ellesmerian) folds and thrusts (Bergh et al, 1997;Blinova et al, 2012Blinova et al, , 2013 and inverted Devonian-Carboniferous normal faults such as the BFZ, making fault offsets difficult to resolve.…”
Section: Cenozoic Fold and Thrust Beltmentioning
confidence: 99%
“…11). Thus, it is possible that areas where beds of the Hultberget Formation conformably overlie Mississippian strata of the Billefjorden Group, like in Billefjorden (central Spitsbergen; Cutbill et al, 1976) and Ditlovtoppen (eastern Spitsbergen; Scheibner et al, 2015), represent proximal portions of hanging walls (i.e., located near the fault) that were down-faulted during active normal faulting in the (Late/latest?) Mississippian.…”
Section: Tilting Of Mississippian Strata Of the Billefjorden Groupmentioning
confidence: 99%
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