Global sea-level rise in the early Holocene revealed from North Sea peats

Journal Article (2025)
Authors

Marc P. Hijma (Deltares, Wageningen University & Research)

Sarah L. Bradley (University of Sheffield)

Kim M. Cohen (Universiteit Utrecht)

Wouter Van Der Wal (TU Delft - Planetary Exploration)

Natasha L.M. Barlow (University of Leeds)

B. Blank (Astrodynamics & Space Missions)

Manfred Frechen (Leibniz Institute for Applied Geophysics)

Rick Hennekam (NIOZ Royal Netherlands Institute for Sea Research)

Sytze van Heteren (TNO)

G.B. Cavadini (External organisation)

Research Group
Planetary Exploration
To reference this document use:
https://doi.org/10.1038/s41586-025-08769-7
More Info
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Publication Year
2025
Language
English
Research Group
Planetary Exploration
Issue number
8055
Volume number
639
Pages (from-to)
652-657
DOI:
https://doi.org/10.1038/s41586-025-08769-7
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Abstract

Rates of relative sea-level rise during the final stage of the last deglaciation, the early Holocene, are key to understanding future ice melt and sea-level change under a warming climate1. Data about these rates are scarce2, and this limits insight into the relative contributions of the North American and Antarctic ice sheets to global sea-level rise during the early Holocene. Here we present an early Holocene sea-level curve based on 88 sea-level data points (13.7–6.2 thousand years ago (ka)) from the North Sea (Doggerland3,4). After removing the pattern of regional glacial isostatic adjustment caused by the melting of the Eurasian Ice Sheet, the residual sea-level signal highlights two phases of accelerated sea-level rise. Meltwater sourced from the North American and Antarctic ice sheets drove these two phases, peaking around 10.3 ka and 8.3 ka with rates between 8 mm yr−1 and 9 mm yr−1. Our results also show that global mean sea-level rise between 11 ka and 3 ka amounted to 37.7 m (2σ range, 29.3–42.2 m), reconciling the mismatch that existed between estimates of global mean sea-level rise based on ice-sheet reconstructions and previously limited early Holocene sea-level data. With its broad spatiotemporal coverage, the North Sea dataset provides critical constraints on the patterns and rates of the late-stage deglaciation of the North American and Antarctic ice sheets, improving our understanding of the Earth-system response to climate change.