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SPATIOTEMPORAL PATTERNS ON THE APPEARANCE OF THE FIRST TRAPEZE INDUSTRIES IN THE LATE MESOLITHIC OF THE IBERIAN PENINSULA

Published online by Cambridge University Press:  14 February 2024

Magdalena Gómez-Puche*
Affiliation:
Instituto Universitario de Investigación en Arqueología y Patrimonio Histórico (INAPH), University of Alicante, Carretera de San Vicente del Raspeig s/n, 03690, San Vicente del Raspeig, Alicante, Spain
Javier Fernández-López de Pablo
Affiliation:
Instituto Universitario de Investigación en Arqueología y Patrimonio Histórico (INAPH), University of Alicante, Carretera de San Vicente del Raspeig s/n, 03690, San Vicente del Raspeig, Alicante, Spain
*
*Corresponding author. Email: magdalena.gomez@ua.es
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Abstract

The spread of trapeze industries (the creation of trapeze-shaped flint tips) during Late Mesolithic is one of the most disruptive phenomena of technological change documented in the European Prehistory. Understanding the chronological patterns of this process requires (i) a critical evaluation of stratigraphic relationship between trapeze assemblages and radiocarbon samples, and (ii) considering different levels of chronological uncertainty according to the inbuilt age of the samples and the calibration process. In this paper, we critically evaluate and analyze the radiocarbon record of the first trapeze industries in the Iberian Peninsula. A dataset of 181 radiocarbon dates from 67 sites dated to 8800–8200 cal BP was collected and evaluated following a strict data quality control protocol, from which 135 dates of 53 sites were retained and classified according to a reliability index. Then, three different phase Bayesian chronological models were created to estimate the duration of the first spread of trapezes across Iberia, considering different levels of chrono-stratigraphic resolution. We find that trapeze industries appeared in the eastern half of Iberia, over an area of 330,000 km2 between 8505–8390 and 8425–8338 cal BP, spanning 0–85 yr (95.4% CI). When the oldest evidence of trapezes from Portugal are considered, the probability distribution expands (8943–8457 and 8686–7688 cal BP), due to the chronological uncertainty of human samples with marine diet and regional ΔR values applied. For the eastern half of Iberia, the current evidence indicates a very rapid spread of trapeze industries initiated in the Central-Western Pyrenees, suggesting cultural diffusion within Mesolithic social networks as the main driving mechanism.

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Type
Research 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, provided the original article is properly cited.
Copyright
© The Author(s), 2024. Published by Cambridge University Press on behalf of University of Arizona
Figure 0

Table 1 Reference record of Iberian Peninsula reservoir ages used in this work.

Figure 1

Figure 1 Spatial distribution map of archaeological sites between 8800 and 8200 cal BP analyzed in this work.

Figure 2

Table 2 Conventional and AMS 14C radiocarbon dates from 8800–8600 cal BP calibrated in OxCal 4.4. and expressed as unmodeled chronological range at the 95% CI. Sample code: Ch/ch—individual/aggregated charcoal; B/b—individual/aggregated bone; Bc—bone collagen; Hh—human bone; S—fruit/seed; Sh—individual shell. Column “Rank” refers to “reliability index”. References: 122. Arias et al. 2018; 212. González-Sampériz et al. 2009; 136. García-Puchol et al. 2018; 173. Utrilla et al. 2012; 70. Neira and Fuertes 2009; 166. Soares and Tavares da Silva, 2003; 218. Domingo et al. 2018; 176. Alday and Cava,2009; 223. Montes et al. 2015; 295. Gassiot et al. 2014; 210. Fernández et al. 2023; 143. Bicho 2009; 82. Berganza and Arribas, 2014; 124. Gibaja et al. 2015; 165. Soares and Tavares da Silva, 2003; 175. Alday and Cava 2009; 217. González-Sampériz et al. 2009. OxCal v4.4 (Bronk Ramsey 2009a).

Figure 3

Table 3 Conventional and AMS 14C radiocarbon dates from 8600–8400 cal BP calibrated in OxCal 4.4. and expressed as unmodeled chronological range at the 95% CI. Sample code: Ch/ch—individual/aggregated charcoal; B/b—individual/aggregated bone; Bc—bone collagen; Hh—human bone; S—fruit/seed; Sh—individual shell. Column “Rank” refers to “reliability index”. References: 26. Alday 2006; 135. Martínez and Mora 2011; 225. Pérez et al. 2016; 100. Monteiro-Rodrigues 2012; 91. Casabó 2014; 182. Alcalde and Saña 2017; 120. Iriarte et al. 2010; 109. Monge Soares et al. 2016; 210. Fernández-López De Pablo et al. 2023; 15. Villar 2007; 80. Arias and Ontañón 2000; 118. López Quintana 1999; 171. Barandiarán 1993; 178. González Sainz 2005; 174. Alday 1997; 143. Bicho 2009; 177. Alday and Cava 2009; 39. Alday 2006; 217. González-Sampériz et al. 2009; 63. Jordá and Cacho 2008; 297. Rodríguez 1979; 212. González-Sampériz et al. 2009; 67. Jordá and Aura 2008; 105. Uzquiano et al. 2016; 222. García-Martínez de Lagrán et al. 2014; 42. Utrilla et al. 2009; 124. Fernández López de Pablo 2016: 100; 89. Gutiérrez et al. 2014; 173. Utrilla et al. 2016; 136. García-Puchol et al. 2018; 215. Barandiarán and Cava, 2000. OxCal v4.4 (Bronk Ramsey 2009a).

Figure 4

Table 4 Conventional and AMS 14C radiocarbon dates from 8400–8200 cal BP calibrated in OxCal 4.4. and expressed as unmodeled chronological range at the 95% CI. Sample code: Ch/ch—individual/aggregated charcoal; B/b—individual/aggregated bone; Bc—bone collagen; Hh—human bone; S—fruit/seed; Sh—individual shell. Column “Rank” refers to “reliability index”. References: 11. Aubry et al. 2011; 188. López Quintana and Guenaga 2011; 143. Bicho 2009; 116. Fano 2004; 103. Straus et al. 2002; 167. Soares and Tavares da Silva, 2003; 102. López Quintana 2005; 210. Fernández et al. 2023; 87. Balbín et al. 2014; 166. Carvalho 2009; 160. Peyroteo 2016; 63. Jordá and Cacho 2008; 124. This work; 78. Cortés 2007; 213. Utrilla et al. 2017; 129. Peyroteo 2016; 217. Utrilla and Rodanés 2004; 215. Barandiarán and Cava, 2000; 137. García-Puchol et al. 2006; 211. Torregrosa et al. 2011; 26. Alday and Cava 2009; 136. García-Puchol et al. 2018; 89. Soares et al. 2016. OxCal v4.4 (Bronk Ramsey 2009a).

Figure 5

Figure 2 Spatial distribution of archaeological sites in temporal slice 1 (TS1). 70: El Espertín. 82: Santa Catalina. 122: Alloru. 124: El Collado. 136: Cocina. 143: São Julião. 165: Montes de Baixo. 166: Castelejo. 173: El Esplugón. 175: La Peña. 176: Fuente Hoz. 210: Arenal de la Virgen. 212: Kanpanoste. 217: Los Baños. 218: Pontet. 223: Espantalobos. 295: Estany de la Coveta.

Figure 6

Figure 3 Spatial distribution of archaeological sites in temporal slice 2 (TS2). Archaeological sites with trapezes, group 1: 42. Peña 14. 89: El Mazo. 136: Cocina. 173: El Esplugón. 215: Botiquería. 222: Artusia. Archaeological sites with trapezes, group 2: 39: Mendandia. 124: El Collado. 63: Tossal de la Roca. 67: Nerja. 105: Cueva Blanca. 177: Aizpea. 217: Los Baños. 297: Cueva del Nacimiento. Archaeological sites without trapezes, group 3: 15. Rei Cintolo. 26. Atxoste. 80: La Garma. 91: Cova Foradada. 100: Prazo. 109: Mazaculos II. 118: Kobeaga II. 120: J3. 135: Font del Ros. 143: São Julião. 171: Berroberría. 174. Kanpanoste Goikoa. 178: Ekain. 182: Serrat del Pont. 210: Arenal de la Virgen. 212: Kanpanoste. 225: Carabión.

Figure 7

Figure 4 Spatial distribution of archaeological sites in temporal slice 3 (TS3). Archaeological sites with trapezes, group 1: 26. Atxoste. 78: Bajondillo Cave. 89: El Mazo. 136: Cocina. 137: Falguera. 211: Benàmer. 215: Botiquería. 217: Los Baños. Archaeological sites with trapezes, group 2: 63: Tossal de la Roca. 124: El Collado. 129: Moita do Sebastião. 160: Vale Romeiras. 213: Ángel 1. Archaeological sites without trapezes, group 3: 11. Buraca Grande. 87: Tito Bustillo. 102: Pareko Landa. 103: La Fragua. 116: Sierra Plana. 143: São Julião. 166: Castelejo. 167: Armação Nova. 188: Santimamiñe. 210: Arenal de la Virgen.

Figure 8

Figure 5 Plot of the single-phase Bayesian model A with the most reliable archaeological contexts to establish the beginning of trapeze industries, TS2 (8600–8400 cal BP). N = 6. Prior distributions (unmodeled calibrations) are shown in light gray and posterior distributions (modeled) in dark gray. OxCal v4.4 (Bronk Ramsey 2009a). 222: Artusia. 42: Peña 14. 89: El Mazo. 173: El Esplugón. 136: Cocina. 215: Botiquería.

Figure 9

Table 5 Table of results from Model A. Radiocarbon posterior probabilities and model agreement indexes of the most reliable archaeological contexts (classified in group 1) from TS2 (8600–8400 cal BP). A = OxCal Agreement index value (should be above 60 if data agree with model), C = OxCal Convergence value (should be ≥95). OxCal v4.4 (Bronk Ramsey 2009a).

Figure 10

Figure 6 Plot of the single-phase Bayesian model B with radiocarbon dates from sites in TS2 (8600–8400 cal BP), classified in groups 1 and 2. N = 15. Prior distributions (unmodeled calibrations) are shown in light gray and posterior distributions (modeled) in dark gray. OxCal v4.4 (Bronk Ramsey 2009a). 177: Aizpea. 39: Mendandia. 217: Los Baños. 222: Artusia. 124: El Collado. 63: Tossal de la Roca. 42: Peña 14. 89: El Mazo. 173: El Esplugón. 212: Kanpanoste. 297: Cueva del Nacimiento.136: Cocina. 105: Cueva Blanca. 67: Nerja. 215: Botiquería.

Figure 11

Table 6 Table of results from Model B. Radiocarbon posterior probabilities and Model agreement indexes of radiocarbon dates from sites in TS2 (8600–8400 cal BP), classified in groups 1 and 2. A = OxCal Agreement index value (should be above 60 if data agree with model), C = OxCal Convergence value (should be ≥95). OxCal v4.4 (Bronk Ramsey 2009a).

Figure 12

Table 7 Table of results from Model C. Radiocarbon posterior probabilities and Model agreement indexes of radiocarbon dates from the most reliable sites in TS2 (8600–8400 cal BP), classified in group 1 and, the oldest Mesolithic sites with trapeze industries from Portugal, documented during TS3 (8400–8200 cal BP). A = OxCal Agreement index value (should be above 60 if data agree with model), C = OxCal Convergence value (should be ≥95). OxCal v4.4 (Bronk Ramsey 2009a).

Figure 13

Figure 7 Plot of the single-phase Bayesian model C with the most reliable archaeological TS 2 assemblages and the oldest Mesolithic sites with trapeze industries from Portugal, documented during TS3 (8400–8200 cal BP). N = 8. Prior distributions (unmodeled calibrations) are shown in light gray and posterior distributions (modeled) in dark gray, when IntCal20 has been used. In the case of using a mixed calibration curve Intcal20 and Marine20, prior distributions (unmodeled calibrations) are shown in light red and posterior distributions (modeled) in dark red. OxCal v4.4 (Bronk Ramsey 2009a). 222: Artusia. 42: Peña 14. 89: El Mazo. 173: El Esplugón. 136: Cocina. 215: Botiquería.160: Vale Romeiras. 129: Moita do Sebastião.

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