A revised radiocarbon calibration curve 350-250 BCE impacts high-precision dating of the Kyrenia Ship

The Kyrenia Ship, found off the north coast of Cyprus, is a key vessel in the history of scientific underwater excavations and in the history of Greek shipbuilding. The first volume of the site's final publication appeared in 2023 and provides detailed archaeological information tightly constra...

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Veröffentlicht in:PloS one 2024-06, Vol.19 (6), p.e0302645
Hauptverfasser: Manning, Sturt W, Lorentzen, Brita, Bridge, Martin, Dee, Michael W, Southon, John, Wenger, Madeleine
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container_issue 6
container_start_page e0302645
container_title PloS one
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creator Manning, Sturt W
Lorentzen, Brita
Bridge, Martin
Dee, Michael W
Southon, John
Wenger, Madeleine
description The Kyrenia Ship, found off the north coast of Cyprus, is a key vessel in the history of scientific underwater excavations and in the history of Greek shipbuilding. The first volume of the site's final publication appeared in 2023 and provides detailed archaeological information tightly constraining the dating of the ship. A very specific date range is proposed: ca. 294-290 BCE, but is based on a less than certain reading of one coin recovered from the ship. While there is clear benefit to finding high-precision dates for the Kyrenia Ship and its rich assemblage using independent scientific dating (combined with Bayesian chronological modeling), efforts to do so proved more challenging and complex than initially anticipated. Strikingly, extensive radiocarbon dating on both wooden materials from the ship and on short-lived contents from the final use of the ship fail to offer dates using the IntCal20 calibration curve-the current Northern Hemisphere radiocarbon calibration curve at the time of writing-that correspond with the archaeological constraints. The issue rests with a segment of IntCal20 ca. 350-250 BCE reliant on legacy pre-AMS radiocarbon data. We therefore measured new known-age tree-ring samples 350-250 BCE, and, integrating another series of new known-age tree-ring data, we obtained a redefined and more accurate calibration record for the period 433-250 BCE. These new data permit a satisfactory dating solution for the ship and may even indicate a date that is a (very) few years more recent than current estimations. These new data in addition confirm and only very slightly modify the dating recently published for the Mazotos ship, another Greek merchant ship from the southern coast of Cyprus. Our work further investigated whether ship wood samples impregnated with a common preservative, polyethylene glycol (PEG), can be cleaned successfully, including a known-age test.
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subjects 3rd century
4th century
Age
Archaeological dating
Archaeology
Archaeology - methods
Bayes Theorem
Bayesian analysis
Biology and Life Sciences
Calibration
Carbon 14
Carbon Radioisotopes - analysis
Ceramics
Coins
Cyprus
Earth Sciences
Ecology and Environmental Sciences
Engineering and Technology
Northern Hemisphere
Polyethylene glycol
Preservatives
Radiocarbon dating
Radiometric dating
Radiometric Dating - methods
Research and Analysis Methods
Shipbuilding industry
Ships
Social Sciences
Tree rings
title A revised radiocarbon calibration curve 350-250 BCE impacts high-precision dating of the Kyrenia Ship
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