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New Albian to Cenomanian (Cretaceous) dinoflagellate cyst taxa of ovoidinioid affinities from East Greenland, the Barents Sea and England
Pre-break-up palaeostress state along the East Greenland margin
Late Ordovician to Silurian ensialic magmatism in Liverpool Land, East Greenland: new evidence extending the northeastern branch of the continental Laurentian magmatic arc
Crustal emplacement of exhuming (ultra)high-pressure rocks: Will that be pro- or retro-side?
Geometry, kinematics, and timing of extensional faulting in the Greenland Caledonides—A synthesis
The North-East Greenland Caledonides record a complex history of crustal thickening and extension during the Paleozoic collision of Baltica with Laurentia. We divide the southern portion of the orogen (70°N–76°N) into three plates separated by low-angle fault systems that are interpreted as extensional detachments superimposed on, and perhaps coeval with, the thrust geometry of the orogen. From structurally lowest to highest, the plates include amphibolite-facies Archean to Paleoproterozoic orthogneiss and lesser paragneiss that retain relics of Devonian high-pressure metamorphism, migmatitic Mesoproterozoic metasedimentary rocks with Silurian leucogranites and lesser orthogneiss at amphibolite-facies conditions, and low-grade Neoproterozoic to Ordovician sedimentary rocks. Individual detachments are characterized by superposition of cataclastic features on mylonitic fabrics, and they record progressive deformation that accommodated exhumation. The extensional faults define two detachment systems that evolved at different crustal levels during two episodes of movement. The upper detachment system, which separates the upper and middle plates, exhumed the midcrustal rocks after ca. 420 Ma. Extension was contemporaneous with crustal thickening and closely followed leucogranite emplacement. The structure may be analogous to the South Tibetan detachment system in the present-day Himalayas. Continental Old Red Sandstone deposition began in the Eifelian, closely following high-pressure metamorphism in the lower plate at ca. 405 Ma. The lower detachment was probably active at some depth below the evolving Devonian basins. The lower detachment system brought lower-plate metamorphic rocks to shallower crustal levels after 400 Ma, excising the overlying extensional system. This second period of extension was similar in timing and style to extension in the Scandinavian Caledonides. Displacement on the younger detachments, which exhumed lower-plate rocks, was broadly syncollisional, as indicated by the overlap in age with ultrahigh-pressure metamorphism in the north at 365–350 Ma, and it may have been synchronous with young thrusts that emplaced high-pressure lower-plate rocks over the foreland and with strike-slip faults in the hinterland. Conversion to extension, accommodated by high-angle brittle faulting in the Carboniferous (after 345 Ma), may mark the final transition to plate divergence that ultimately led to continental rifting.
The Devonian basin in East Greenland—Review of basin evolution and vertebrate assemblages
From Middle Devonian times, the continental Old Red Sandstone Basin in NorthEast Greenland has accumulated more than 8 km of mainly coarse clastic sediments. These sediments have been studied for more than 100 yr, and they became world famous prior to the Second World War for the discovery of the earliest four-legged vertebrates, the tetrapods later assigned to the genus Ichthyostega . Basin initiation in East Greenland was caused mainly by extensional collapse of an overthickened Caledonian crustal welt accommodated by SE-NW–oriented dip-slip faulting and, subordinately, by N-S–oriented sinistral wrench faulting due to late Caledonian shear displacements along plate boundaries. Four main tectonostratigraphic basin stages have been recognized in the succession. The stages of basin development are separated by subregional to basinwide unconformities and represent depositional episodes punctuated by major tectonic events. Each basin stage is built up of one or several depositional complexes that share roughly similar drainage patterns, measured on a basinwide scale. The four basin stages indicate initial eastward drainage, followed by southward drainage, northward drainage, and finally southwestward drainage. In this paper, we review previous research on the dynamics of Devonian basin initiation, its filling, and the tectonic and climatic controls on sedimentary processes. The successive vertebrate faunal assemblages of the different basin stages are also reviewed, with some consideration of the preservational, ecological, and wider faunal contexts of the components of those faunas. Some remaining problems of correlation and precise dating are noted, and suggestions are made for further work.