FN Archimer Export Format PT J TI Eemian estuarine record forced by glacio-isostasy (southern Iceland)-link with Greenland and deep sea records BT AF VAN VLIET-LANOE, Brigitte SCHNEIDER, Jean-Luc GUDMUNDSSON, Agust GUILLOU, Herve NOMADE, Sebastien CHAZOT, Gilles LIORZOU, Celine GUEGAN, Solene AS 1:1;2:2;3:3;4:4;5:4;6:1;7:1;8:1,5; FF 1:;2:;3:;4:;5:;6:;7:;8:; C1 UBO, IUEM, UMR Geosci Ocean 6538, Pl N Copernic, F-29280 Plouzane, France. Univ Bordeaux, CNRS, UMR EPOC 5805, Allee G St Hilaire, F-33615 Pessac, France. Jardfraedistofan Ehf, Hafnarfjordur, Iceland. LSCE, Domaines CNRS, Bat 12 Av Terrasse, F-91198 Gif Sur Yvette, France. BCRMarine Brest, Serv Logist, CC50, F-29240 Brest 9, France. C2 UBO, FRANCE UNIV BORDEAUX, FRANCE JARDFRAEDISTOFAN EHF, ICELAND LSCE, FRANCE BCRMARINE BREST, FRANCE UM LGO IF 1.422 TC 7 UR https://archimer.ifremer.fr/doc/00638/75001/75938.pdf LA English DT Article AB Central southern Iceland is one of the main outlets of the Icelandic Ice Sheet where a MIS 5e sedimentary complex, the Ranga Formation, is extensively observed below the last deglaciation terminal moraines. Sedimentary facies demonstrate that the Ranga Formation is mostly tidal, up to 215 m (transgression I) and 168 m (transgression II) in altitude. The first highstand reworks a thick tephra from the Grimsvotn volcano, known in marine cores as 5e low/Bas-IV and positioned at ca. 127 Ka BP, the Eemian thermal optimum. This formation is related to a rapid deglaciation followed by two marine transgressions marked by the development of extended mud flats, which were separated by a complex regression phase, associated with loess deposition, ca. 9 Ka in duration. Palaeo jokulhlaups, basaltic flows, and tephra fallouts from the Hekla and Grimsvotn volcanoes affected the sedimentation. The Ranga Formation yields one of the first continuous and complete estuarine records of the Eemian interglacial in Iceland and probably for most of the northern terrestrial Atlantic. This estuarine infill records the distal signature of a complex glacial advance within the last interglacial, already well identified in northern and central Iceland. The glacial advance is attributed to the intra-Eemian cooling events (Greenland GS 26 or marine cold events M-C25-C26). It is followed by a warming and a glacial retreat corresponding to the Greenland GI 25 event. This formation allows, in connection with the timing of recognized volcanic periods, a better insight of the interconnections between sea-level, regional glacial extent, and Northern Hemisphere marine and ice core climatic records. PY 2018 PD FEB SO Canadian Journal Of Earth Sciences SN 0008-4077 PU Canadian Science Publishing, Nrc Research Press VL 55 IS 2 UT 000424010000005 BP 154 EP 171 DI 10.1139/cjes-2017-0126 ID 75001 ER EF