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The Power of Relics: The Curation of Human Bone in British Bronze Age Burials

Published online by Cambridge University Press:  25 May 2022

Joanna Brück
Affiliation:
School of Archaeology, University College Dublin, Ireland
Thomas J. Booth
Affiliation:
Skoglund Laboratory, Francis Crick Institute, London, UK
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Abstract

In this article, the authors examine radiocarbon, histo-taphonomic, and contextual evidence for the deliberate curation, manipulation, and redeposition of human bone in British Bronze Age mortuary contexts. New radiocarbon dates and histological analyses are combined with existing data to explore the processes and practices that resulted in the incorporation of ‘relic’ fragments of bone in later graves, including evidence for the deliberate re-opening of previous burials and for funerary treatments such as excarnation and mummification. In some cases, fragments of human bone were curated outside the mortuary context. The authors consider what the treatment of human remains reveals about mortuary complexity in the Bronze Age, about relations between the living and the dead, and about attitudes to the body and concepts of the self.

Les auteurs de cet article présentent les données radiocarbone, taphonomiques, histologiques et contextuelles concernant la conservation intentionnelle, la manipulation et la redéposition d'ossements humains provenant de sépultures de l’âge du Bronze fouillées dans les Îles britanniques. En combinant des éléments publiés avec de nouvelles dates radiocarbone et analyses histologiques, ils examinent les processus et pratiques qui ont mené à l'intégration d'ossements « reliques » en contextes funéraires, y compris la réouverture de sépultures antérieures et les divers traitements des dépouilles tels que l'excarnation et la momification. Dans certains cas, on a conservé des ossements humains en dehors des lieux de sépulture. Les auteurs considèrent ce que le traitement des cadavres révèle sur la complexité des pratiques funéraires de l’âge du Bronze, sur les rapports entre les vivants et les morts, sur les attitudes envers le corps et sur le concept de soi. Translation by Madeleine Hummler

Die Verfasser dieses Artikels befassen sich mit den Radiokarbon-datierten, histologischen, taphonomischen und kontextuellen Nachweisen für die absichtliche Aufbewahrung, Manipulation und Wiederbestattung menschlicher Knochen aus bronzezeitlichen Grabstätten in den Britischen Inseln. Die Kombination von neuen Radiokarbondaten und histologischen Analysen mit bestehenden Daten ermöglicht es, die Vorgehensweisen und Sitten, welche zur Eingliederung von menschlichen Knochenresten („Reliquien“) in (Nach)Bestattungen führten, zu untersuchen. Dazu gehörten die absichtliche Wiedereröffnung von Gräbern und die Behandlung von Leichen wie Exkarnation und Mumifizierung. In einigen Fällen wurden Menschenknochen außerhalb Grabstätten aufbewahrt. Die Verfasser erwägen, was die Behandlung von Menschenresten für die Komplexität der bronzezeitlichen Bestattungssitten, für die Beziehungen zwischen den Lebenden und den Toten, für die Einstellung zum Körper und für das Selbstbild bedeuten könnte. Translation by Madeleine Hummler

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Type
Article
Creative Commons
Creative Common License - CCCreative Common License - BY
This is an Open Access article, distributed under the terms of the Creative Commons Attribution licence (http://creativecommons.org/licenses/by/4.0/), which permits unrestricted re-use, distribution, and reproduction in any medium, provided the original work is properly cited.
Copyright
Copyright © The Author(s), 2022. Published by Cambridge University Press on behalf of the European Association of Archaeologists
Figure 0

Figure 1. a) Chronological model of the radiocarbon dates from Melton Quarry burials 1008 and 1009. b) Probability distribution of the difference between the radiocarbon dates from the articulated inhumation burial (SUERC 72661) and the disarticulated infant bones (SUERC 72666). Note that in this figure and all other probability distribution figures in this article, light grey represents the unmodelled difference, comparing the dates directly with no assumptions. Dark grey represents the modelled difference (posterior density estimate), comparing the dates within the constraints applied by assumed or observed relationships with other dated materials included in the model. Quoted differences reflect modelled differences.

Figure 1

Figure 2. a) Cnip Headland, Isle of Lewis: plan of the partially articulated burial (after Lelong et al., 2018: illus. 5). b) Chronological model of the radiocarbon dates from Cnip Headland. c) Probability distribution of the difference between the radiocarbon dates from the partially articulated adolescent male (Sk1) and the disarticulated metacarpal from the base of the grave (SUERC 30860). SUERC 30859 and 39854 are dates for other disarticulated bones from the same context as Sk1 but belonging to other individuals. Figure 2a reproduced by permission of Ingrid Shearer and Olivia Lelong.

Figure 2

Figure 3. Windmill Fields, Ingleby Barwick, Stockton-on-Tees: inhumation burial accompanied by a carefully arranged stack of disarticulated bone. ©Tees Archaeology. Reproduced by permission of Tees Archaeology.

Figure 3

Figure 4. a) Chronological model of the radiocarbon dates from Windmill Fields, Ingleby Barwick. b) Probability distribution of the difference between the radiocarbon dates from the articulated adult female (Sk6, UB 4174) and the disarticulated skull of an adult female from the same context (BRAMS 1287). c) Probability distribution of the difference between the radiocarbon dates from the articulated adult female (Sk6, UB 4174) and the disarticulated skull of an adult male from the same context (BRAMS 1286). All other dates shown in Figure 4a are from other graves at the same site. OxA 8652 is a date for disarticulated bone from the nearby wooden mortuary structure.

Figure 4

Figure 5. a) Chronological model of the radiocarbon dates from Cotswold Community. b) Probability distribution of the difference between the radiocarbon dates from the femur fragment (BRAMS 1448) and the ash charcoal (BRAMS 1281) and burnt animal bone (BRAMS 1283) (combined).

Figure 5

Figure 6. a) Chronological model of the radiocarbon dates from Trelowthas. b and c) Probability distribution of the difference between the radiocarbon date from a burnt bone in the urn (BRAMS 1290) and a modelled likely end date for the deposit into which the urn was placed (lower spit 3 end) based on dates from two samples of burnt bone from the latter deposit (BRAMS 1288 and 1289). c) Probability distribution of the difference between the radiocarbon date from a burnt bone in the urn (BRAMS 1290) and burnt bone from the cist into which this vessel was deposited (BRAMS 1289). BRAMS 1292 is from burnt bone found beneath the basal stone of the cist.

Figure 6

Figure 7. a) Chronological model of the radiocarbon dates from Whitton Hill. b and c) Probability distribution of the difference between the radiocarbon dates from the three samples of cremated bone.

Figure 7

Figure 8. The Boscombe Bowmen, Wiltshire: plan © Wessex Archaeology. Reproduced by permission of Wessex Archaeology.

Figure 8

Figure 9. a) Chronological model of the radiocarbon dates from the Boscombe Bowmen primary deposit built in OxCal. b) Probability distribution of the difference between the radiocarbon dates from a disarticulated femur of an adult male from bone deposit 25008 (OxA 13543) and the accompanying articulated burial (25004; OxA 13624). c) Probability distribution of the difference between the radiocarbon dates from a disarticulated femur of an adult male from context 25010 (OxA 13542) and the articulated burial (25004). d) Probability distribution of the difference between the radiocarbon dates from a disarticulated femur of a subadult from context 25010 (OxA 13681) and the articulated burial (25004). The remaining dates are from other burials from the same grave: the cremation burial of an infant (OxA 13972) and the articulated inhumation burials of two juveniles (OxA 13598 and 13599).

Figure 9

Figure 10. Density plot showing kernel distribution estimates for combined Chalcolithic and Bronze Age Intervals generated in BChron, representing estimates of human bone ages on deposition. Kernel distributions were generated using the geom_density function in the ggplot package in R Studio with default parameters (kernel = ‘gaussian’, bw = ‘nrd0’, scale = ‘area’; R Core Team, 2013).

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