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New evidence for Middle Bronze Age chronology from the Syro-Anatolian frontier

Published online by Cambridge University Press:  29 March 2023

Virginia R. Herrmann*
Affiliation:
Institute for Ancient Near Eastern Studies, University of Tübingen, Germany
Sturt W. Manning
Affiliation:
Cornell Tree Ring Laboratory, Department of Classics, Cornell University, Ithaca, USA Cornell Institute of Archaeology and Material Studies, Cornell University, Ithaca, USA The Cyprus Institute, Nicosia, Cyprus
Kathryn R. Morgan
Affiliation:
Department of Classical Studies, Duke University, Durham, USA
Sebastiano Soldi
Affiliation:
Institute for Ancient Near Eastern Studies, University of Tübingen, Germany National Research Council of Italy (CNR), Institute of Heritage Science (ISPC), Rome, Italy
David Schloen
Affiliation:
Department of Near Eastern Languages and Civilizations, University of Chicago, USA
*
*Author for correspondence ✉ vrherrmann@gmail.com
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Abstract

Dates differ by up to 150 years in the protracted debate around the chronology of the Middle Bronze Age Near East. Here, the authors present radiocarbon and ceramic evidence from destroyed buildings at Zincirli, Türkiye, that support the Middle Chronology. Ceramics from late Middle Bronze Age sites in Syria and Anatolia, and Bayesian modelling of 18 well-stratified radiocarbon samples from site destruction contexts attributable to Hittite king Ḫattusili I, indicate a date in the later seventeenth century BC. Since the Northern Levant connects the Mesopotamian and Eastern Mediterranean second-millennium BC chronologies, this evidence supports the convergence of these long-debated schemas, with implications for the start of the Late Bronze Age and the rise of empires.

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Research Article
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This is an Open Access article, distributed under the terms of the Creative Commons Attribution-NonCommercial-ShareAlike licence (https://creativecommons.org/licenses/by-nc-sa/4.0/), which permits non-commercial re-use, distribution, and reproduction in any medium, provided the same Creative Commons licence is included and the original work is properly cited. The written permission of Cambridge University Press must be obtained for commercial re-use.
Copyright
Copyright © The Author(s), 2023. Published by Cambridge University Press on behalf of Antiquity Publications Ltd.
Figure 0

Figure 1. Maps of Middle Bronze Age sites in Syria, Anatolia and Mesopotamia: A) sites destroyed in late MB II with ceramic assemblages comparable to Zincirli Complex DD; B) possible locations of cities claimed to have been conquered by Hittite kings Ḫattusili I and Mursili I (prepared by V. Herrmann and D. Schloen).

Figure 1

Figure 2. Comparison of the date ranges for the First Dynasty of Babylon, according to five competing chronologies for Mesopotamian history (prepared by V. Herrmann).

Figure 2

Figure 3. Plan of Zincirli, showing structures excavated 1888–1894 (von Luschan et al. 1898: pls 28–29) and 2006–2018 excavation trenches (pink) (prepared by V. Herrmann; courtesy of the Chicago-Tübingen Excavations at Zincirli).

Figure 3

Figure 4. Plan of MB II structures excavated in Zincirli Area 2 (prepared by V. Herrmann; courtesy of the Chicago-Tübingen Excavations at Zincirli).

Figure 4

Figure 5. Ceramic forms representative of the Zincirli MB II destruction assemblage, compared with forms from contemporaneous late MB II sites: A) Zincirli, goblet C17-46.0A#1; B) Tilmen (Marchetti 2008: fig. 3:4; used with permission); C & D) Alalakh VII (Heinz 1992: pl. 5:25, 6:31; used with permission); E) Ebla IIIB2 (Pinnock 2005: pl. 19:5; used with permission); F) Umm el-Marra late MB II (Schwartz et al.2003: fig. 29:3; used with permission); G) Oylum (Özgen & Helwing 2001: fig. 17:e; used with permission); H) Zeytinli Bahçe (Balossi et al.2007: fig. 10:e; used with permission); I) Lidar (after Kaschau 1999: fig. 23:N 11a); J) Zincirli cooking pot R15-302; K) Tilmen (Marchetti 2008: fig. 3:9; used with permission); L) Tilmen (Marchetti 2010: fig. 8:b; used with permission); M) Kinet (Gates 2011: fig. 10:b; used with permission); N) Zincirli simple ware jar C17-46.0A#6; O) Lidar (after Kaschau 1999: fig. 28:K/F 4b); P) Zeytinli Bahçe (Balossi et al.2007: fig. 10:a; used with permission). Scales in cm (prepared by S. Soldi).

Figure 5

Figure 6. Globular wine flasks found in the Zincirli MB II destruction assemblage, compared with flasks from contemporaneous late MB II sites: A) Zincirli, painted flask C18-46.0B#16 (height = 380mm); B) Kültepe (after Emre 1995: fig. 7b; height = 260mm); C) Kültepe (after Emre 1995: fig. 6; height = 286mm); D) Zincirli, unpainted flask C17-46.0B#6 (height 410mm); E) Kültepe (after Emre 1995: fig. 21; height 240mm); F) Lidar (after Kaschau 1999: fig. 29:K/F 6a; height = 340mm); G) Tilbeşar (Kepinski 2012: fig. 11; height = 400mm; used with permission); H) Zeytinli Bahçe (Balossi et al.2007: fig. 12; used with permission). Scales in cm (prepared by S. Soldi).

Figure 6

Figure 7. Model 1a: light-shaded distributions show non-modelled calibrated probabilities. Dark distributions show modelled probabilities, and lines beneath show 68.3% (upper line) and 95.4% (lower line) highest posterior density ranges. For dates on short-lived materials where the OxCal General Outlier model is applied, outlier probabilities are shown as Posterior/Prior (Prior is 5%). The two >10% probability outlier elements (OxA-36326 & Tübitak-0461) are shown in bold red. OxA-36326 is excluded in Models 2a, 2b, 3a and 3b as a probably residual EBIV sample, as indicated by the orange arrow. Tübitak-0461 is moved into the MBII destruction phase in Models 2a, 3a, 2b and 3b, as indicated by the dashed red arrow. For dates on charcoal samples where the OxCal Charcoal Outlier model is applied, these are 100/100 (prepared by S. Manning).

Figure 7

Figure 8. Model 1b: see Figure 7 caption. Move of Tübitak-0461 for Models 2a, 2b, 3a and 3b is indicated by the dashed red arrow (prepared by S. Manning).

Figure 8

Figure 9. a) The eight modelled dating probability distributions for the Phase 4 Destruction Boundary in Figure S5 overlaid. The approximately 73.2% highest posterior density (hpd) range from the combination of all these probability distributions lies c. 1662–1606 BC; b) the combination of the preferred ‘b’ approach models, using Model 1b excluding the residual OxA-36326, Model 2b and Model 3b, finds that the single most likely, approximately 56.2% hpd range lies c. 1632–1610 BC (prepared by S. Manning).

Figure 9

Table 1. Summary results from Models 2b (2a) and 3b (3a). All elements with Convergence (C) ≥95. Interval or Difference queries (italics) are periods of calendar years. The 68.3% and 95.4% highest posterior density (hpd) ranges are given as whole (start–end) ranges; internal divisions are not listed (for details of the Phase 4 destruction event, see Figures 7–9 and S5).

Figure 10

Figure 10. Interpretive figure showing radiocarbon dates from Northern Levantine sites destroyed in the late/final MB II and dendrochronological dates from Kültepe, correlated with historical events and compared with five proposed absolute chronologies for those events. HC = High Chronology; hMC = High-Middle Chronology; lMC = Low-Middle Chronology; LC = Low Chronology; NC/ULC = New Chronology/Ultra-Low Chronology (Pruzsinszky 2009; Höflmayer & Manning 2022). The green gradient approximates the apparent best fit with the majority of dates reported. For sources and explanation of the symbology, see the online supplementary material (OSM). Date ranges from reported radiocarbon analyses are given below relevant phases. All published single dates have been recalibrated with OxCal v.4.4.4 software using the IntCal20 curve (Bronk Ramsey 2009; Reimer et al.2020); the 68.3% highest posterior density range (or closest possible) is reported (prepared by V. Herrmann).

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