Landscape evolution and sediment delivery in a High Arctic proglacial lake, Ellesmere Island, Canadian Arctic Archipelago

Geophysical and morphosedimentary investigations were conducted at Strathcona Lake, a High Arctic proglacial lake and its catchment connected to the Taggart Lake Glacier, northwest corner of the Prince of Wales Icefield in Ellesmere Island (eastern Canadian Arctic Archipelago). The mapping of glacio...

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Veröffentlicht in:Earth surface processes and landforms 2024-05, Vol.49 (6), p.1987-2009
Hauptverfasser: Chassiot, Léo, Lajeunesse, Patrick, Francus, Pierre, Normandeau, Alexandre, Lapointe, François, Massa, Charly, De Coninck, Arnaud
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container_end_page 2009
container_issue 6
container_start_page 1987
container_title Earth surface processes and landforms
container_volume 49
creator Chassiot, Léo
Lajeunesse, Patrick
Francus, Pierre
Normandeau, Alexandre
Lapointe, François
Massa, Charly
De Coninck, Arnaud
description Geophysical and morphosedimentary investigations were conducted at Strathcona Lake, a High Arctic proglacial lake and its catchment connected to the Taggart Lake Glacier, northwest corner of the Prince of Wales Icefield in Ellesmere Island (eastern Canadian Arctic Archipelago). The mapping of glaciomarine landforms and units provides, together with updated radiocarbon information, a framework for catchment evolution and sediment delivery to the lake during deglaciation and glacio‐isostatically induced relative sea level fall. A staircase of deltas with descending altitudes provide evidence for a spatially diachronous timing of ice retreat from the catchments around Strathcona Lake. Swath bathymetric mapping coupled with acoustic sediment stratigraphy show draped infills with a transition from marine to rhythmically bedded lacustrine sediments produced by hyperpycnal flows. Multiproxy investigations on a set of sediment cores highlight proglacial varves interrupted by rhythmites resulting from the erosion of fluvially incised glaciomarine sediments stored in the catchment. Pluricentimetric proglacial varves formed during the last century in response to periods of intense glacial melt, notably since the 21st century. The sedimentary record suggests the varved sediments from Strathcona Lake can be used to reconstruct the melting history of the Prince of Wales Icefield. This work provides a geomorphological, sedimentological, and geochemical framework that should guide future varve‐based reconstructions of glacial and climatic variability in Ellesmere Island. Google Earth view of Strathcona Fiord and Strathcona Lake illustrating sediment delivery from a deglaciated landscape.
doi_str_mv 10.1002/esp.5811
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subjects Acoustic mapping
Archipelagoes
Carbon 14
Catchment area
Catchments
Climate variability
Cores
Deglaciation
Deltas
Evolution
Geomorphology
Glacial lakes
Glacial periods
Glacier melting
Glaciers
Ice fields
Inland waters
Lacustrine sedimentation
Lacustrine sediments
Lakes
Landforms
Mapping
Meltwater
paraglacial sedimentation
Prince of Wales Icefield
proglacial varves
Radiocarbon dating
Sea level fall
Sediment
Sediments
Stratigraphy
Varves
title Landscape evolution and sediment delivery in a High Arctic proglacial lake, Ellesmere Island, Canadian Arctic Archipelago
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