Climate Change and Coastal Processes in the Baltic Sea

Various manifestations of climate change have led to complicated patterns of reactions of the Baltic Sea shores to varying hydrodynamic drivers. The northern and western bedrock and limestone coasts of this young water body experience postglacial uplift that is faster than the global sea-level rise....

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Main Author: Soomere, Tarmo
Format: Book Part
Language:English
Published: Oxford University Press 2024
Subjects:
Online Access:http://dx.doi.org/10.1093/acrefore/9780190228620.013.897
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spelling croxfordunivpr:10.1093/acrefore/9780190228620.013.897 2024-09-30T14:43:08+00:00 Climate Change and Coastal Processes in the Baltic Sea Soomere, Tarmo 2024 http://dx.doi.org/10.1093/acrefore/9780190228620.013.897 en eng Oxford University Press Oxford Research Encyclopedia of Climate Science ISBN 9780190228620 reference-entry 2024 croxfordunivpr https://doi.org/10.1093/acrefore/9780190228620.013.897 2024-09-17T04:29:39Z Various manifestations of climate change have led to complicated patterns of reactions of the Baltic Sea shores to varying hydrodynamic drivers. The northern and western bedrock and limestone coasts of this young water body experience postglacial uplift that is faster than the global sea-level rise. These coastal segments are thus insensitive with respect to changes in hydrodynamic forcing. Sedimentary and easily erodible coasts of the westernmost, southern, and eastern shores of this water body evolve under the impact of relative sea-level rise, changing wave properties and gradual loss of sea ice in conditions of chronic deficit of fine sediment. Several classic features of coastal processes, such as the cut-and-fill cycle of beaches, are substantially modified in many coastal sections. Waves approaching the shore systematically at large angles drive massive alongshore sediment transport in many coastal segments. This transport has led to the development of large sand spits and many relict lakes separated from the sea by coastal barriers. The concept of closure depth is reinterpreted because of frequent synchronization of strong waves and elevated water levels. The gradual loss of sea ice cover endangers most seriously coastal systems around the latitudes of the Gulf of Finland (about 60°N). The combined influence of climatically controlled sea-level rise and intense wave action leads to a gradual increase in eroding sections and the acceleration of coastal retreat on the southern downlifting shores of Poland and Germany. The bidirectional wind forcing has created a delicate balance of sediment on the shores of Latvia and Lithuania. This balance is vulnerable with respect to changes in strong wind directions. The sedimentary shores of Estonia host a number of small beaches that are geometrically protected against typical strong wind directions but are sensitive with respect to storms from unusual directions. Numerical analysis of sediment transport patterns along the eastern shores of the Baltic Sea has ... Book Part Sea ice Oxford University Press
institution Open Polar
collection Oxford University Press
op_collection_id croxfordunivpr
language English
description Various manifestations of climate change have led to complicated patterns of reactions of the Baltic Sea shores to varying hydrodynamic drivers. The northern and western bedrock and limestone coasts of this young water body experience postglacial uplift that is faster than the global sea-level rise. These coastal segments are thus insensitive with respect to changes in hydrodynamic forcing. Sedimentary and easily erodible coasts of the westernmost, southern, and eastern shores of this water body evolve under the impact of relative sea-level rise, changing wave properties and gradual loss of sea ice in conditions of chronic deficit of fine sediment. Several classic features of coastal processes, such as the cut-and-fill cycle of beaches, are substantially modified in many coastal sections. Waves approaching the shore systematically at large angles drive massive alongshore sediment transport in many coastal segments. This transport has led to the development of large sand spits and many relict lakes separated from the sea by coastal barriers. The concept of closure depth is reinterpreted because of frequent synchronization of strong waves and elevated water levels. The gradual loss of sea ice cover endangers most seriously coastal systems around the latitudes of the Gulf of Finland (about 60°N). The combined influence of climatically controlled sea-level rise and intense wave action leads to a gradual increase in eroding sections and the acceleration of coastal retreat on the southern downlifting shores of Poland and Germany. The bidirectional wind forcing has created a delicate balance of sediment on the shores of Latvia and Lithuania. This balance is vulnerable with respect to changes in strong wind directions. The sedimentary shores of Estonia host a number of small beaches that are geometrically protected against typical strong wind directions but are sensitive with respect to storms from unusual directions. Numerical analysis of sediment transport patterns along the eastern shores of the Baltic Sea has ...
format Book Part
author Soomere, Tarmo
spellingShingle Soomere, Tarmo
Climate Change and Coastal Processes in the Baltic Sea
author_facet Soomere, Tarmo
author_sort Soomere, Tarmo
title Climate Change and Coastal Processes in the Baltic Sea
title_short Climate Change and Coastal Processes in the Baltic Sea
title_full Climate Change and Coastal Processes in the Baltic Sea
title_fullStr Climate Change and Coastal Processes in the Baltic Sea
title_full_unstemmed Climate Change and Coastal Processes in the Baltic Sea
title_sort climate change and coastal processes in the baltic sea
publisher Oxford University Press
publishDate 2024
url http://dx.doi.org/10.1093/acrefore/9780190228620.013.897
genre Sea ice
genre_facet Sea ice
op_source Oxford Research Encyclopedia of Climate Science
ISBN 9780190228620
op_doi https://doi.org/10.1093/acrefore/9780190228620.013.897
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