Stratigraphy, evolution, and controls of a Holocene transgressive-regressive barrier island under changing sea-level: Danish North Sea coast

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Stratigraphy, evolution, and controls of a Holocene transgressive-regressive barrier island under changing sea-level : Danish North Sea coast. / Fruergaard, Mikkel; Møller, Ingelise; Johannessen, Peter; Nielsen, Lars Henrik; Andersen, Thorbjørn Joest; Nielsen, Lars; Sander, Lasse; Pejrup, Morten.

In: Journal of Sedimentary Research, Vol. 85, No. 7, 2015, p. 820-844.

Research output: Contribution to journalJournal articleResearchpeer-review

Harvard

Fruergaard, M, Møller, I, Johannessen, P, Nielsen, LH, Andersen, TJ, Nielsen, L, Sander, L & Pejrup, M 2015, 'Stratigraphy, evolution, and controls of a Holocene transgressive-regressive barrier island under changing sea-level: Danish North Sea coast', Journal of Sedimentary Research, vol. 85, no. 7, pp. 820-844. https://doi.org/10.2110/jsr.2015.53

APA

Fruergaard, M., Møller, I., Johannessen, P., Nielsen, L. H., Andersen, T. J., Nielsen, L., Sander, L., & Pejrup, M. (2015). Stratigraphy, evolution, and controls of a Holocene transgressive-regressive barrier island under changing sea-level: Danish North Sea coast. Journal of Sedimentary Research, 85(7), 820-844. https://doi.org/10.2110/jsr.2015.53

Vancouver

Fruergaard M, Møller I, Johannessen P, Nielsen LH, Andersen TJ, Nielsen L et al. Stratigraphy, evolution, and controls of a Holocene transgressive-regressive barrier island under changing sea-level: Danish North Sea coast. Journal of Sedimentary Research. 2015;85(7):820-844. https://doi.org/10.2110/jsr.2015.53

Author

Fruergaard, Mikkel ; Møller, Ingelise ; Johannessen, Peter ; Nielsen, Lars Henrik ; Andersen, Thorbjørn Joest ; Nielsen, Lars ; Sander, Lasse ; Pejrup, Morten. / Stratigraphy, evolution, and controls of a Holocene transgressive-regressive barrier island under changing sea-level : Danish North Sea coast. In: Journal of Sedimentary Research. 2015 ; Vol. 85, No. 7. pp. 820-844.

Bibtex

@article{55c46488e1ea4c2dbad2ac0ed021aabb,
title = "Stratigraphy, evolution, and controls of a Holocene transgressive-regressive barrier island under changing sea-level: Danish North Sea coast",
abstract = "This study provides a detailed reconstruction of the formation of a wave-dominated barrier island and assesses the sedimentological and morphological effects of sea-level changes on barrier evolution. Sedimentological and stratigraphic characteristics of the Holocene deposits are resolved by percussion cores and an extensive ground-penetrating-radar survey. A high-resolution chronology of the cored barrier island deposits is constructed by optically stimulated luminescence dating. This approach facilitates a high spatio-temporal resolution of the island{\textquoteright}s morphological and depositional evolution. The results show that the barrier island experienced multiple phases of transgressions and regressions during the mid- and late Holocene and that these changes were driven primarily by changes in rates of sea-level rise, sediment supply and the impact of storms. Due to the postglacial sea-level rise, the seaward part of the study area was transgressed by the retreating mainland shoreline, forming a back-barrier basin. At the time of the initial transgression, sea level was rising by more than 4.0 mm yr−1. As sea-level rise decreased to less than 2 mm yr−1 the back-barrier basin rapidly started to fill with sediments before being transgressed by the still retreating open-ocean shoreline. These events were associated with periods of very rapid landward displacement of up to 10 m yr−1 of the mainland shoreline. After stabilization of the barrier island in its most eastward (i.e., landward) location, the open-ocean shoreline prograded about 3 km seaward at a rate of > 3 m yr−1 through the deposition of a 7-m-thick sandy beach and shoreface succession. The progradation occurred despite a sea-level rise of about 1.8 mm yr−1. After the regressive period the barrier island once again became transgressive before shifting back to its current regressive stage. The study shows how comparable rates of sea-level rise can result in very different morphological responses for a single barrier island since sediment supply apparently has varied significantly through time. It also appears that a transgressive situation is reached for this particular barrier island for a sea-level rise higher than about 2 mm yr−1. This gives reason for concern since a number of sea-level change scenarios indicate that such a rate will be reached within a few decades. ",
author = "Mikkel Fruergaard and Ingelise M{\o}ller and Peter Johannessen and Nielsen, {Lars Henrik} and Andersen, {Thorbj{\o}rn Joest} and Lars Nielsen and Lasse Sander and Morten Pejrup",
year = "2015",
doi = "10.2110/jsr.2015.53",
language = "English",
volume = "85",
pages = "820--844",
journal = "Journal of Sedimentary Research",
issn = "1527-1404",
publisher = "Society for Sedimentary Geology (S E P M)",
number = "7",

}

RIS

TY - JOUR

T1 - Stratigraphy, evolution, and controls of a Holocene transgressive-regressive barrier island under changing sea-level

T2 - Danish North Sea coast

AU - Fruergaard, Mikkel

AU - Møller, Ingelise

AU - Johannessen, Peter

AU - Nielsen, Lars Henrik

AU - Andersen, Thorbjørn Joest

AU - Nielsen, Lars

AU - Sander, Lasse

AU - Pejrup, Morten

PY - 2015

Y1 - 2015

N2 - This study provides a detailed reconstruction of the formation of a wave-dominated barrier island and assesses the sedimentological and morphological effects of sea-level changes on barrier evolution. Sedimentological and stratigraphic characteristics of the Holocene deposits are resolved by percussion cores and an extensive ground-penetrating-radar survey. A high-resolution chronology of the cored barrier island deposits is constructed by optically stimulated luminescence dating. This approach facilitates a high spatio-temporal resolution of the island’s morphological and depositional evolution. The results show that the barrier island experienced multiple phases of transgressions and regressions during the mid- and late Holocene and that these changes were driven primarily by changes in rates of sea-level rise, sediment supply and the impact of storms. Due to the postglacial sea-level rise, the seaward part of the study area was transgressed by the retreating mainland shoreline, forming a back-barrier basin. At the time of the initial transgression, sea level was rising by more than 4.0 mm yr−1. As sea-level rise decreased to less than 2 mm yr−1 the back-barrier basin rapidly started to fill with sediments before being transgressed by the still retreating open-ocean shoreline. These events were associated with periods of very rapid landward displacement of up to 10 m yr−1 of the mainland shoreline. After stabilization of the barrier island in its most eastward (i.e., landward) location, the open-ocean shoreline prograded about 3 km seaward at a rate of > 3 m yr−1 through the deposition of a 7-m-thick sandy beach and shoreface succession. The progradation occurred despite a sea-level rise of about 1.8 mm yr−1. After the regressive period the barrier island once again became transgressive before shifting back to its current regressive stage. The study shows how comparable rates of sea-level rise can result in very different morphological responses for a single barrier island since sediment supply apparently has varied significantly through time. It also appears that a transgressive situation is reached for this particular barrier island for a sea-level rise higher than about 2 mm yr−1. This gives reason for concern since a number of sea-level change scenarios indicate that such a rate will be reached within a few decades.

AB - This study provides a detailed reconstruction of the formation of a wave-dominated barrier island and assesses the sedimentological and morphological effects of sea-level changes on barrier evolution. Sedimentological and stratigraphic characteristics of the Holocene deposits are resolved by percussion cores and an extensive ground-penetrating-radar survey. A high-resolution chronology of the cored barrier island deposits is constructed by optically stimulated luminescence dating. This approach facilitates a high spatio-temporal resolution of the island’s morphological and depositional evolution. The results show that the barrier island experienced multiple phases of transgressions and regressions during the mid- and late Holocene and that these changes were driven primarily by changes in rates of sea-level rise, sediment supply and the impact of storms. Due to the postglacial sea-level rise, the seaward part of the study area was transgressed by the retreating mainland shoreline, forming a back-barrier basin. At the time of the initial transgression, sea level was rising by more than 4.0 mm yr−1. As sea-level rise decreased to less than 2 mm yr−1 the back-barrier basin rapidly started to fill with sediments before being transgressed by the still retreating open-ocean shoreline. These events were associated with periods of very rapid landward displacement of up to 10 m yr−1 of the mainland shoreline. After stabilization of the barrier island in its most eastward (i.e., landward) location, the open-ocean shoreline prograded about 3 km seaward at a rate of > 3 m yr−1 through the deposition of a 7-m-thick sandy beach and shoreface succession. The progradation occurred despite a sea-level rise of about 1.8 mm yr−1. After the regressive period the barrier island once again became transgressive before shifting back to its current regressive stage. The study shows how comparable rates of sea-level rise can result in very different morphological responses for a single barrier island since sediment supply apparently has varied significantly through time. It also appears that a transgressive situation is reached for this particular barrier island for a sea-level rise higher than about 2 mm yr−1. This gives reason for concern since a number of sea-level change scenarios indicate that such a rate will be reached within a few decades.

U2 - 10.2110/jsr.2015.53

DO - 10.2110/jsr.2015.53

M3 - Journal article

VL - 85

SP - 820

EP - 844

JO - Journal of Sedimentary Research

JF - Journal of Sedimentary Research

SN - 1527-1404

IS - 7

ER -

ID: 142311659