Optically stimulated luminescence dating using quartz

被引:0
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作者
Andrew Murray
Lee J. Arnold
Jan-Pieter Buylaert
Guillaume Guérin
Jintang Qin
Ashok K. Singhvi
Rachel Smedley
Kristina J. Thomsen
机构
[1] Aarhus University,Department of Geoscience
[2] University of Adelaide,School of Physical Sciences, Environment Institute, Institute for Photonics and Advanced Sensing (IPAS)
[3] Technical University of Denmark,Department of Physics
[4] IRAMAT-CRP2A,State Key Laboratory of Earthquake Dynamics, Institute of Geology
[5] UMR 5060 CNRS — Université Bordeaux Montaigne,Xinjiang Pamir Intracontinental Subduction National Field Observation and Research Station, Institute of Geology
[6] Maison de l’archéologie,AMOPH Division
[7] Université Rennes,Department of Geography and Planning
[8] CNRS,undefined
[9] Géosciences Rennes,undefined
[10] UMR 6118,undefined
[11] China Earthquake Administration,undefined
[12] China Earthquake Administration,undefined
[13] Physical Research Laboratory,undefined
[14] Navarangpura,undefined
[15] University of Liverpool,undefined
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摘要
Optically stimulated luminescence (OSL) signals from quartz can be used to determine when sedimentary archives were deposited. OSL dating uses the accumulation of energy stored in a crystal structure to measure time. This stored energy is absorbed from ionizing radiation, and is released (reset) by heat or daylight. The total specific energy (dose) absorbed since the last resetting is measured using OSL, and divided by the rate of storage (dose rate) to give the time elapsed from the last heating or daylight exposure. In this Primer, quartz OSL dating is introduced and the signal resetting processes outlined. We describe the origins and quantification of the dose rate and the daylight-sensitive OSL signal most appropriate to dose estimation. The most widely used dose measurement method is then discussed, together with quality-control procedures. A broad set of geological and archaeological studies are used to illustrate the wide range of potential applications, and we describe the challenges arising from different deposition environments and summarize evidence for the precision and accuracy of published ages. Uncertainties and minimum reporting are discussed together with methodological limitations, particularly when applied to young and old sediments. Finally, we highlight the anticipated future developments in the field.
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