Journal of Archaeological Science: Reports 37 (2021) 102936 Contents lists available at ScienceDirect Journal of Archaeological Science: Reports journal homepage: www.elsevier.com/locate/jasrep Manufacturing traces and pot-forming processes during the Early Neolithic at Cueva de El Toro (Málaga, Spain, 5280–4780 BCE) Javier Cámara Manzaneda a, *, Xavier Clop García a, Jaume García Rosselló b, María Dolores Camalich Massieu c, Dimas Martín-Socas c a ARCHAEOM, Departament de Prehistòria, Universitat Autònoma de Barcelona, 08193 Bellaterra, Catalunya, Spain b ArqueoUIB Research Group, Departament de Ciències Històriques i Teoria de les Arts, Universitat de les Illes Balears, 07122 Palma de Mallorca, Illes Balears, Spain c Departamento de Geografía e Historia, Área de Prehistoria, Universidad de La Laguna, 38200 La Laguna, Tenerife, Islas Canarias, Spain A R T I C L E I N F O A B S T R A C T Keywords: This paper reports the results of forming processes used in pottery manufacture at La Cueva de El Toro (Málaga, Pottery forming processes Spain) during the Early Neolithic (5280–4780 cal. BCE). La Cueva de El Toro is one of the most important sites of Ceramic technology reference on the southern Iberian Peninsula for providing extensive and systematised data on early farming Manufacturing traces practices. The identification of manufacturing traces on pottery has enabled the assessment of the variability of Early Neolithic forming techniques used by the communities of herders that seasonally inhabited the cave during the Early Andalusia Iberian Peninsula Neolithic. Forming processes were also compared with characteristic features of pottery products (typology, decorations) that are representative of the first pottery production in this area. Furthermore, this study provides new insights into the distribution of the first pot-forming processes in the south of the Iberian Peninsula, which suggest the use of similar techniques to the forming-sequences documented at other Early Neolithic sites (the use of coils and circular patches) and other forming processes (moulding process and the use of discs) which are still unknown in the Western Mediterranean. 1. Introduction materials, the circulation of ceramic products and mobility patterns during the Early Neolithic based on these parameters (e.g., Angeli and The onset of the manufacture and use of ceramic vessels in the Fabbri, 2017; Binder et al., 2010; Capelli et al., 2017; Clop, 2011, 2012; Western Mediterranean occurred with the spread of farming practices Gabriele et al., 2019; Manen and Convertini, 2012; Stempfle et al., during the 6th millennium cal. BCE. Ceramic vessels started to be used in 2018). One of the latest research lines to have been included in dis­ each area in accordance with the different temporal, spatial and social cussions of the Neolithisation process is the identification of pot-forming dynamics of the Neolithisation process, which recent studies have sequences used in the first pottery production in Western Europe and the coincided in defining as non-linear and possibly multidirectional (Ber­ Mediterranean basin (Gomart et al., 2017, 2020). nabeu and Martí Oliver, 2014; Binder et al., 2017; Guilaine, 2013; Current technological studies have revealed the existence of several Manen et al., 2019a). traditions and technical practices that spread with the Neolithisation In this context, the first pottery productions have been investigated process in Western Europe. The coiling techniques documented since the on the basis of their formal and decorative attributes – grouped into the beginning of the Early Neolithic in the Balkans (end of the VII millen­ so-called Impressa, Cardial and Epicardial decorative styles – in order to nium cal. BCE) (Gomart et al., 2020), are linked to the introduction of define the spread and sequence of the Neolithisation process as well as to farming and Linear Pottery (LBK) in several areas of Central and Western shed light on the connections and contacts between several regions of Europe, such as Hungary (Gomart et al., 2020; Kreiter et al., 2017), the the Western Mediterranean (e.g., Bernabeu et al., 2017; Rigaud et al., Czech Republic (Neumannová et al., 2017; Thér et al., 2019), Belgium 2018). Meanwhile, studies focused on their technological features have and north-east France (c. 5500–4950 cal. BCE) (Bosquet et al., 2005; provided data on different issues, such as the supply areas of raw Gomart, 2014; Van Doosselaere et al., 2013). Indeed, these technical * Corresponding author. E-mail addresses: javier.camara@uab.cat (J. Cámara Manzaneda), xavier.clop@uab.cat (X. Clop García), jaume.garcia@uib.es (J. García Rosselló), dmassieu@ull. edu.es (M.D. Camalich Massieu), dsocas@ull.edu.es (D. Martín-Socas). https://doi.org/10.1016/j.jasrep.2021.102936 Received 29 November 2020; Received in revised form 5 March 2021; Accepted 10 March 2021 Available online 31 March 2021 2352-409X/© 2021 The Authors. Published by Elsevier Ltd. This is an open access article under the CC BY license (http://creativecommons.org/licenses/by/4.0/). J. Cámara Manzaneda et al. Journal of Archaeological Science: Reports 37 (2021) 102936 practices prevailed between Hungary and the Paris basin practically variety (Camalich Massieu and Martín-Socas, 2013), but one that is without change (Gomart et al., 2017) and were also linked to the singular due to the absence of vessels with cardial decorations. diffusion of others such as the construction of vessels with slabs or the The aim of this paper is to reveal the pot-forming processes used by beating technique (Gomart et al., 2020; Thér et al., 2019). In contrast, the communities that periodically inhabited Cueva de El Toro during the recent research conducted at the first farming sites from the Western Early Neolithic (5280–4780 cal. BCE). First, in order to recognise which Mediterranean underscore a technical duality in the ceramic manufac­ forming processes were used in pottery manufacture, the ceramic ture, characterised by both the coiling forming sequences and the assemblage was examined considering the diagnostic traces preserved in juxtaposition of circular patches. The use of coiling techniques is also the ceramic vessels. Second, the identified techniques were compared identified in the first Impressa vessels in southeast Italy (5900–5600 cal. with the shape and decorative attributes. Finally, results were con­ BCE) (Angeli and Fabbri, 2017; Colombo, 2017). Conversely, in the textualised and compared with the available data on forming-sequences Ligurian-Provencal Arc and southeast France (5800–5600 cal. BCE), documented in other Early Neolithic sites from the Mediterranean basin ceramic vessels, also linked to Impressa decors, were entirely manufac­ and Western Europe. tured using juxtaposed patches, each formed by a spiral coil (Gomart et al., 2017). 2. Site: Cueva de El Toro Unfortunately, the distribution of the first pottery forming processes during the Early Neolithic is still unknown in several areas and chro­ Cueva de El Toro is located in the Sierra de El Torcal (Málaga, Spain) nologies, including the Iberian Peninsula. The first pottery production at 1190 m above sea level (Fig. 1). The inside of the cave was formed by on this area dates to around 5650 cal. BCE (Bernabeu et al., 2011; García large limestone blocks detached from the roof. The original space is Borja et al., 2014; Oms et al., 2014), although no specific pottery studies articulated on two platforms (Sector 1 and Sector 2) at different heights based on the identification of manufacturing traces have been reported (Martín-Socas et al., 2004). to date. Archaeological fieldwork identified a 2.40 m deep stratigraphic This paper focuses on the examination of ceramic vessels from the sequence, with four chrono-cultural phases. The two lower layers Early Neolithic occupation of Cueva de El Toro, located in the south of correspond to the Neolithic occupations: Phase IV (Early Neolithic, the Iberian Peninsula (Martín-Socas et al., 2004). Since the introduction 5280–4780 cal. BCE) and Phase III (Late Neolithic, 4250–3950 cal. BCE) of farming to this region (c. 5500–4700 cal. BCE, Martín-Socas et al., (Martín-Socas et al., 2018), with a period of site abandonment of 500 2018), a wide variety of decorative techniques were used in the pro­ years between the two phases. duction of vessels, with the application of almagra being especially The first occupation (Early Neolithic) suggests a domestic context prominent throughout the region, as well as cardial decorations, characterised by domestic species, mainly ovicaprids and cereal plants, concentrated mainly around Granada and Málaga. Cueva de El Toro as well as a wide range of representative artefacts of the Early Neolithic: represents one of many examples of this morphological and decorative carved and polished stone tools, animal hard matter tools (bone, shell Fig. 1. Location of Cueva de El Toro (Málaga, Spain) and the other Early Neolithic sites with research on forming processes based on the observation of manufacturing traces (VI millennium cal. BCE): 1. Cueva de El Toro (Spain), 2, Peiro Signado, 3. Pont de Roque-Haute, 4. La Farigoule 2, 5. Abri Pendimoun (southeastern France) (Gomart et al., 2017; Manen et al., 2019b), 6. Arene Candide, 7. Colle Santo Stefano, 8. Ripa Tetta (Italy) (Angeli and Fabbri, 2017; Colombo, 2017; Gomart et al., 2017), 9, Vörs-Máriaasszo-ny-sziget, 10. Balatonszárzó-Kis-erdei-dulo, 11. Nagykörű-Tsz. Gyümölcsös, 12. Polgár-Ferenci-hát (Hungary) (Gomart et al., 2020; Kreiter et al., 2017), 13. Bylany (Check Republic) (Neumannová et al., 2017; Thér et al., 2019), 14. Rosheim, 15. Ennery, 16. Metz-Nord, 17. Cury-lès-Chaudardes (northwestern France) (Gomart, 2014), 18. Aubechies, 19. Rosmeer, 20. Verlaine, 21. Fexhe-le-Haut-Clocher, 21. Remicourt, 22. Vaux-et-Borset (Belgium) (Bosquet et al., 2005; Gomart, 2014; Van Doosselaere et al., 2013). 2 J. Cámara Manzaneda et al. Journal of Archaeological Science: Reports 37 (2021) 102936 Fig. 2. Examples of pottery shapes and decoration from Cueva de El Toro (Phase IV). 3 J. Cámara Manzaneda et al. Journal of Archaeological Science: Reports 37 (2021) 102936 and antler), vegetal fibres, jewellery and ceramic vessels. Table 1 Phase IV is therefore interpreted as a periodical or seasonal occu­ Vessels and ceramic elements analysed from Phase IV of Cueva de El Toro with pation with a predominantly pastoral orientation. The cave interior was diagnostic macro-traces examined with macroscopic observations and optical used for consumption and craft activities, as well as activities associated microscope. *Bases included in the analysis. **Handle elements preserved with the rituality and symbolism of these communities (Camalich within the sample of vessels. Massieu and Martín-Socas, 2013; Égüez et al., 2016; Martín-Socas et al., Preservation Number of Number of ceramic 2004, 2018; Santana et al., 2019). vessels elements Pottery production is characterised by its extraordinary quality, Large part of the profile preserved 7 - predominantly fine-ware with major attention to surface treatments and Profile of the belly, the upper part 28 6 decorations (Fig. 2). Overall, the most predominant shapes are hemi­ and rim spherical, ellipsoidal and ovoid profiles, although the repertoire is very wide, including vessels with converging walls, spherical and conical Upper parts / rim 60 5 bases and, in some cases, compound shapes with collars. These shapes are normally associated with ribbon handles, solid protrusions and, Lower part of vessels (bases) - 6* exceptionally, spouts. Handles / grip elements 29** 30 In general, two volumetric groups of vessels can be identified. One, with a capacity ranging from one to three litres, would have been used Total 95/29** 47 for domestic activities. The other, which is quantitatively less frequent and has a greater capacity and attached grip elements, would be related the central area of the cave (domestic context) (Martín-Socas et al., to the transport and storage of food products (Martín-Socas et al., 2004; 2004) with the exception of four vessels that were recovered from a Tarifa et al., 2019). specific context related to symbolic or ideological practices (Santana The pottery is also characterised by the outstanding presence of et al., 2019). Additionally, the sample of analysed vessels comprises the decorated vessels, either with the exclusive application of almagra, or variety of shapes and decors that characterise the ceramic assemblage of with a technical variety that encompasses impressions, incisions, stab- Phase IV. and-dragging (boquique) and applied decorations. In addition, red paste is also used to fill the negatives of the aforesaid decorations. 3.3. Examination of manufacturing traces with macroscopic observations 3. Material and methods and optical microscope 3.1. Technological approach The identification of forming processes was based on the recognition of manufacturing traces preserved in the ceramic vessels. Manufacturing Amongst research on pottery manufacture, forming processes are traces encompass all those features produced directly during the pro­ considered a suitable indicator to assess the variability of ways of doing, duction process of vessels that were not obliterated by other techniques the work processes used in ceramic production as well as the trans­ or subsequent processes (surface treatments, decorations, use-wear mission of technical know-how (García Rosselló and Calvo Trias, 2013). traces and taphonomic processes), and those macro-traces produced Ethnoarchaeological studies reveal how these techniques are learnt by indirectly as a consequence of their use, rupture or abandonment, which observation and, more importantly, by practice through a close inter­ also inform about their manufacture (García Rosselló and Calvo Trias, action between apprentices and tutors (Bril, 2002; Gosselain, 2011; 2013, 2019). Calvo Trias and García Rosselló, 2014). This means that technical ges­ The examination of manufacturing traces was conducted by macro­ tures are thus ‘incorporated’ and cannot be easily modified or changed scopic observations of the topography and texture of surfaces, formal once they have been learnt (Gosselain, 2011; Roux, 2011). As a result, variations in vessel profile and wall-thickness, the fracturing patterns of their reproduction and transmission across several generations of pro­ vessels (linear fractures, laminar fractures, cracks formed on the surfaces ducers may entail major stability over time and space, especially when and cross-sections) and the internal structure of vessels in the radial compared to other features of ceramic vessels (Gosselain, 2000; Roux plane (discontinuities and distribution of pores and particles) (Cámara, et al., 2017). 2019; García Rosselló and Calvo Trias, 2013; Livingstone Smith, 2007). The technological study focuses on the identification of forming Ceramic macro-traces were recognised by combining observations techniques and methods. Forming techniques include those modalities with the naked eye and angular lights and observations with an optical whereby paste is transformed into a volume (forming and auxiliary microscope (5x to 16x magnifications). In parallel, manufacturing traces techniques, building phases of vessels and added elements) and those were photographically recorded using a digital camera and alternating whereby ceramic products are regularised and the final shape is ob­ between two lenses (18–55 mm intermediate lens and 90 mm macro tained (García Rosselló and Calvo Trias, 2013). Forming methods were lens). Photographs were taken with a static tripod and auxiliary LED defined according to the sequence of forming techniques used for lights, preventing the entry of artificial or natural light during the building each part of ceramic vessels (Roux, 2011, 2019). shooting process. Photographs at 8x magnification were obtained with a Leica Microscope. Photographs obtained at different depths of field were 3.2. Pottery analysed processed with Helicom Focus v.4.62 software. The ceramic assemblage from Phase IV of Cueva de El Toro consists 3.4. Recording and interpretation of manufacturing traces of around 128 ceramic vessels. The analysis focused on ceramic sherds with diagnostic macro-traces which preserve part of the profile (base, Two methodologies were used to record and systematically describe belly, upper parts/rim) and which can be individualised from its formal macro-traces (García Rosselló and Calvo Trias, 2013) and the internal and decorative traits. In total, forming processes were identified in 95 structure of vessels in the radial plane (Livingstone Smith, 2007; Mar­ vessels and 47 ceramic elements with diagnostic macro-traces (5 rims, 6 tineau, 2000). parts of bellies, 6 bases and 30 handles not assigned to specific vessels), The interpretation of forming processes in each ceramic vessel was which include 396 potsherds (Table 1). This sample presents several based on the correlation of manufacturing traces and their comparison degrees of preservation, with a majority of vessels for which only the with a series of experimental and ethnoarchaeological collections upper part and rim are preserved. The ceramic assemblage comes from (García Rosselló and Calvo Trias, 2013, 2019; Gelbert, 2005; Lepère, 4 J. Cámara Manzaneda et al. Journal of Archaeological Science: Reports 37 (2021) 102936 2014; Livingstone Smith, 2007; Martineau, 2000, 2010; Roux, 2016, preservation of vessels which do not preserve their profile completely 2019; Rye, 1981). During examination of the ceramic assemblage of and bases that hence could not be assigned to any specific ceramic vessel Cueva de El Toro, a set of manufacturing traces with no current ethno­ (Table 3). archaeological or experimental referential was detected. Their techno­ logical origin was inferred by comparing these features with a series of macro-traces identified in archaeological contexts (Gomart et al., 2017; 4.1. Forming process with several assembled elements (lower parts) and Manen et al., 2019b), which led to the proposal of several hypotheses coils with alternate overlapping (upper parts) regarding their forming sequence. The manufacturing traces and forming techniques inferred in each The reconstruction of the TCT1 forming method is based on several ceramic vessel were entered in a relational database that separates the vessels that present a similar morphology of macro-traces. First, this empirical data (manufacturing traces) from their technical interpreta­ forming sequence encompasses 2 vessels whose whole profile is pre­ tion (forming techniques). The number of macro-traces identified in served, both of which display a similar morphology of traces in the lower those vessels and handles included in the study amounted to 516. The part with 4 of the bases analysed. Second, there are 22 vessels with a forming sequence of vessels was established afterwards in consideration preserved part of the belly, 50 vessels with a preserved upper part and of the degree of vessel preservation. rim and 10 elements not assigned to specific individuals (5 rims and 5 parts of bellies) that also present a similar morphology of traces. These vessels, however, cannot be strictly associated with a forming method as 3.5. Quantitative analysis of assembled elements their profiles are not completely preserved. The bases present sub-circular and horizontal fractures at the bottom Several statistical tests were conducted to assess the degree of and at the beginning of the belly. The topography preserves wavy de­ deformation and variability of those vessels formed by assembled ele­ pressions on the inner surface of the base and individual variations both ments, such as the use of coils. First, the coil height and wall-thickness of on the inner and the outer topography (Fig. 3a2-a3). In the radial plane, the vessels were measured for each part of the profile. The measure­ transversal fractures present a heterogeneous internal structure with ments correspond to the largest coil height whilst the thickness of the oblique discontinuities (Fig. 3a1). The correlation of these macro-traces walls is related to the part of the profile where the coil measures were suggests that the bases were formed at least by several assembled ele­ obtained. The distribution of the measurements in the box plot diagram ments with possible oval shapes. The forming of horizontal preferential was used to visualise the similarities and differences between the loca­ fractures also suggests the fashioning of vessels with several building tion of measures in the belly and upper parts of the vessels, bearing in phases. mind that the interquartile range and median is represented in the box. The belly, upper part and rim of the vessels present horizontal and In order to assess the variability of coil heights, the coefficient of vari­ diagonal fractures as well as staggered vertical fractures (Figs. 4, 5). The ation (CV) was used and compared between each part of ceramic vessels. internal and external topography of the walls preserves horizontal un­ Second, a scatter plot and the Pearson coefficient correlation were used dulations that can be associated with horizontal burrs on the inner to assess the correlation between coil height and wall-thickness, with a surface (Fig. 4a1). The correlation of these traces suggests that the belly correlation probability threshold of a = 0.05 (Hammer et al., 2001). and upper parts of the vessels were formed by horizontal or diagonal Finally, the standard deviation of the diameter of circular elements coils. In the radial plane, the internal structure is heterogeneous, with a detected in several vessels was estimated. regular distribution of particles and voids forming S/Z-shaped configu­ rations (Fig. 4b1). This type of configuration is generally linked with 4. Results superimposed coils that are subsequently thinned and stretched (Liv­ ingstone Smith, 2007) or coils that are successively alternate over­ The study of the ceramic assemblage of Phase IV from Cueva de El lapped, both externally and internally (Martineau, 2000). In the Toro enabled the identification of several forming processes based on analysed ceramic vessels, the presence of undulations and burrs on the the diagnostic macro-traces preserved on ceramic vessels. At least five topography creating horizontal bands (Fig. 4a1) and the oblique con­ forming methods (TCT1 to TCT5) were reconstructed on the basis of figurations of coils in the radial sections suggest that they may corre­ vessels that preserve a large part of their profiles (Table 2). Moreover, a spond to alternate gestures. The internal structure of the upper parts and series of partial forming sequences were defined according to the rims also suggests the forming with oblique assembled coils (Fig. 4a2, Table 2 Reconstructed forming methods identified in the ceramic assemblage of Phase IV in Cueva de El Toro. *Bases included in the analysis. Forming Number of Base Forming Belly Forming Upper Part/Rim Forming Shaping Techniques Methods vessels / bases TCT1 2 Several assembled elements (oval Coils with alternate overlapping Coils with alternate overlapping, Traces of scraping on depressions and fractures, with oblique (S/Z-shaped configurations in internally and externally overlapped (S/Z- the inner surface of discontinuities in the radial plane) the radial plane) shaped configurations in the radial plane) the belly TCT2 2* Shaped disc with an oval shape (oval Coils with alternate overlapping – – fracture with an oblique edge) (S/Z-shaped configurations) TCT3 2 Circular juxtaposed elements (curvilinear macro-traces, laminar fractures Circular juxtaposed elements (laminar – and long oblique discontinuities in the radial plane) fractures and vertical discontinuities in the radial plane) TCT4 1 Moulding over a convex support (regular profile and topography, Coil externally overlapped (horizontal Traces of scraping on compression of the internal structure in the radial plane and development of variations in the external topography of the inner surface of fissures parallel to the surfaces) the rim) the rim TCT5 1 Pinching technique (finger-print in the inner part of the base, uneven variations of wall-thickness and vertical cracks) Total 6 / 2* 5 J. Cámara Manzaneda et al. Journal of Archaeological Science: Reports 37 (2021) 102936 Table 3 Partial forming sequences identified in the ceramic assemblage of Phase IV in Cueva de El Toro. *Bases included in the analysis. Forming Number of Base Forming Belly Forming Upper Part/Rim Forming Shaping Techniques Methods vessels / ceramic elements – 4* Several assembled elements (oval – – depressions and fractures, with oblique discontinuities in the radial plane) – 22 / 5 Preserved in one small-size Coils with alternate overlapping (S/Z- Coils with alternate overlapping, with the Traces of scraping vessel, not determined shaped configurations). Not last coil internally and externally overlapped on the inner surface determined in 2 cases (S/Z-shaped configurations). Without the of the belly (n = 4) preservation of the rim in 8 cases – 50 / 5 – – Coils with alternate overlapping, with the last coil internally and externally overlapped (S/Z-shaped configurations). Without the preservation of the rim in 3 cases – 4/1 – Circular juxtaposed elements – (curvilinear macro-traces, laminar fractures and long oblique discontinuities in the radial plane) – 13 – Sub-circular fractures and macro- Coils with alternate overlapping, with the traces partially preserved, not last coil internally and externally overlapped determined (S/Z-shaped configurations). Without the preservation of the rim in 3 cases Total 89 / 15 5b2), with the last coil internally or externally overlapped (internal or from the other forming processes identified. These traces are identified external oblique discontinuity in the radial plane). in 2 vessels with practically entirely preserved profiles, in 4 vessels with In addition, several vessels display regular surfaces with grooves that only partially preserved bellies and 1 pottery sherd from a belly not were not removed with surface treatments. These traces suggest that the individualised. surfaces were scraped, which modified the wall-thickness and also The lower parts of the vessels display sub-circular and circular- removed the previous manufacturing traces produced by the initial shaped fractures in the frontal view (Fig. 7c). These sub-circular frac­ forming techniques. tures can be associated with laminar fractures with wavy edges (Fig. 7b1) that form layers parallel to the surface in the radial plane 4.2. Shaped disc and assembled coils (Fig. 7b2). Sub-circularities can also be identified on the internal sur­ faces where curvilinear burrs and sub-circular fractures merge together The TCT2 forming method has been reconstructed on the basis of two in circular juxtaposed shapes (Fig. 7f; Fig. 8b2). In a particular case, conical profiles with preserved bottoms and bellies (Fig. 6). The two laminar fractures coincide with sherds detached from the belly, which conical profiles show a different topography for the base and the belly. also present a sub-circular shape and an uneven topography that do not In the bases, the topography is uniform both inside and outside, whereas correspond to the internal surface of the vessel (Fig. 7g1-g3). the topography of the belly preserves several horizontal undulations In the radial plane, the internal structure is heterogeneous and forms (Fig. 6a2). Only one of the vessels has a fractured base that enables long discontinuities parallel to the surfaces associated with sub-circular recognition of its forming process. This base has an oval-shaped fracture configurations (Fig. 8b1). These long discontinuities can correspond to with an oblique margin at the edges (length 7.6 mm and 5.8 mm wide vertical fissures formed in the cross-sections and associated with several fractured part) (Fig. 6b). On the internal surface, the oblique edge is layers that form laminar fractures parallel to the surfaces (Fig. 7a). The associated with a laminar fracture that corresponds to the beginning of forming of these layers can also be observed on the internal and external the belly (Fig. 6b1). This fracture suggests that the base was formed with surfaces (Fig. 7e). Similarly, in the horizontal cross-section of a vessel, an oval disc, dragging of the margins to form an oblique edge. This oval long sub-circular configurations appear juxtaposed over a horizontal disc is identified in one of the conical bases while in the other case, as the layer facing the inner wall (Fig. 7d). base is not fractured, the use of this element cannot be confirmed. These macro-traces that delimit the edge of circular elements are not Nonetheless, the regularity of the topography and density of the bottom identified in the current series of ethnographic and experimental col­ in comparison to the belly (Fig. 6a2) may suggest that in this case the lections. In contrast, this evidence does bear similarities to several fea­ base was also formed by a disc. tures documented in the first pottery productions from Abri Pendimoun, In the belly, the topography displays undulations on the surfaces Arene Candide (Gomart et al., 2017) and La Farigoule 2 (Manen et al., (Fig. 6a2). In the radial plane, the internal structure is heterogeneous, 2019b). At these sites, ceramic vessels present networks of curvilinear forming S-shaped configurations (Fig. 6a1). Together, these traces sug­ fractures and circular convexities on the topography, detached sherds gest the use of the same forming sequence as the TCT1 method with the from the body and sub-circular configurations associated with long assemblage of coils with alternate overlapping. oblique discontinuities in the radial plane. According to Gomart et al. (2017), these traces suggest that the vessels were built by means of 4.3. Forming process with juxtaposed circular elements circular juxtaposed and fused patches, each formed by a spiral coil, with a patch diameter of around 44 ± 2.3 mm (standard deviation). The in­ The reconstruction of the TCT3 forming method was based on several terpretations of this forming process using spiralled patches are also vessels displaying a series of macro-traces that morphologically differ based on other traces, such as the circular organization of pores and 6 J. Cámara Manzaneda et al. Journal of Archaeological Science: Reports 37 (2021) 102936 Fig. 3. Macro-traces of TCT1 forming method associated with the bases. a1: Transversal fracture with oblique discontinuities in the radial plane (white arrows). a2: Horizontal preferential fracture and individual horizontal variation on the external topography. a3: Wavy depressions and convexities on the inner surface and sub- circular fractures, forming together an oval shape. These macro-traces suggest that bases were formed by several assembled with a possible oval shape. Edition & photography: J. Cámara. particles in the tangential plane visible at macroscopic scale or deter­ elements. The support practically covered the piece as far the upper part mined by micro-computed tomography analyses (µCT) (Gomart et al., of the belly and once extracted the internal surface was smoothed, 2017). In the case of Cueva de El Toro, these circular elements can also leaving striations in the belly and grooves in the base, the latter caused be interpreted as partially juxtaposed patches, with diameters of around by a major displacement of clay (Lepère, 2014). The rim was then 52 ± 8.4 mm (n◦ . of measured patches = 6). Nonetheless, sub- formed by coils, thickening its profile. The inner surface of the rim was circularities inside these circular elements can only be observed in subsequently scraped, forming several grooves that removed the leftover some specific cases (Fig. 8b1), which do not enable us to confirm paste in order to regularize this part of the vessel. Additionally, the whether all these circular elements were formed by a spiral coil. morphology of the grooves also indicate that the scraping was per­ formed when the paste of the vessel was at its initial hard-leather stage. 4.4. Moulding over a convex support and assembled coils 4.5. Vessel built by pinching The reconstruction of the TCT4 forming method is based on one vessel with an entirely preserved profile (Fig. 9). The external topog­ The TCT5 forming process comprises a single, fully-preserved vessel. raphy of the base and the belly is completely regular and the surface was The external surface is polished, leaving a regular topography, whilst the vertically polished. The profile is also regular, despite a progressive internal surface is smoothed. A hemispherical hollow is identified on the decrease in wall-thickness from the base to the belly (Fig. 9b). Only one inside of the base, which is vertically oriented from the bottom towards horizontal variation in the external topography of the rim is preserved, the belly (Fig. 10a2). This vessel also presents uneven variations in the which coincides with a thickening of the profile (Fig. 9a1). thickness of the walls, decreasing in the base and partially increasing in The internal surface presents an uneven smoothing treatment, with the belly. The only observed fractures correspond to vertical and irreg­ bands at the base (Fig. 9c3) and a grainy texture with linear striations ular cracks formed from the rim to the belly (Fig. 10a1). and protruded grains on the belly (Fig. 9c2). Additionally, the inner The morphology of these traces and the small size of the vessel surface of the rim preserves a concentration of several grooves with suggest that this vessel was formed by pinching. The hollow located in marked edges (Fig. 9c1). the inner part of the vessel corresponds to a finger-print produced when In the radial plane, the internal structure of the base and the belly is pinching and subsequently stretching the vessel from the bottom to the compressed, with a vertical distribution of a-plastic particles and voids belly. In turn, the uneven variations and the cracks may have been and the formation of cracks parallel to the surfaces (Fig. 9b1-b2). The formed by stretching the walls vertically up to the rim. The size of the internal structure of the rim is heterogeneous, although it is so eroded vessel also suggests that it was fashioned in only one forming sequence. that it is not possible to discern the orientation of pores and particles. Altogether, these macro-traces suggest that the lower part was 4.6. Variability of coil heights moulded over a convex support whilst the rim was formed by horizontal coils. The bottom and belly were built over a convex support, regular­ Coil height was measured in a large number of vessels, most of which ising the external surface and obtaining a regular profile and topog­ only preserve the upper part and rim. The distribution of values in the raphy. Precisely, as a consequence of the intensive regularization of box plot shows that coil height measurements are similar both in the surfaces and compression of the paste it is not possible to confirm belly and in the upper part of the vessels (Fig. 11a). Considering the whether this vessel was moulded by a mass of paste or by assembled percentage of the Coefficient of Variation (CV), coil heights are quite 7 J. Cámara Manzaneda et al. Journal of Archaeological Science: Reports 37 (2021) 102936 Fig. 4. Macro-traces associated with the TCT1 forming method. a2: Horizontal undulations and burrs on the internal surface (black discontinuous dashes). a2 & b1: S/Z-shaped configurations on the cross-section of the belly and the rim. The distribution of porosity and a-plastic particles is oblique to vertical. b2: Detailed view of distribution of pores and particles. These macro-traces suggest the forming process of the belly and the rim with oblique alternate coils. Edition & photography: J. Cámara. variable when all measures are tested together. Nonetheless, the CV (Table 2, supplementary material). The large number of measurements value from the measurements of the belly is slightly higher compared to oscillates between 10.1 and 16.4 mm, while there are lower height the CV value from the upper parts (Table 1, supplementary material). values of between 7.9 and 9.7 mm and others that are higher than 17.6 This may suggest that coils were of similar height, although several coils mm. This variability may indicate that the coils were slightly or not from the upper parts and the rim were less variable and probably less deformed, while the highest measures may correspond to higher deformed in comparison to the ones used to form the belly. assembled elements that were more elongated or deformed during the The scatter plot shows a linear correlation between wall-thickness forming process. and coil height in the belly and upper parts of the vessels (Fig. 11b). Non-correlation p values of the Pearson test also reveal that these vari­ ables are both correlated for the belly and the upper part of the vessels 8 J. Cámara Manzaneda et al. Journal of Archaeological Science: Reports 37 (2021) 102936 Fig. 5. Macro-traces associated with the TCT1 forming method. a1: Horizontal undulations on the external topography of the collar. b1: S/Z-shaped configurations on the cross-section of the collar. The orientation of particles and voids is oblique to vertical. These macro-traces suggest the forming process of the collar with oblique alternate coils. Edition & photography: J. Cámara. 4.7. Attachment systems of handles and grip elements 5. Discussion Grip and hanging elements from the ceramic assemblage of Cueva de 5.1. Variability of pottery forming processes identified in Cueva de El El Toro present different ways to attach these elements on the walls. The Toro sample analysed with diagnostic traces comprises 30 sherds of handles and lugs that are not assigned to any specific vessel as well as 29 ele­ The results obtained from the examination of manufacturing traces ments that are preserved on individualised vessels (Table 1). enabled reconstruction of the forming processes that were used in The forming varies according to the morphology of handles (ribbon, ceramic production at Cueva de El Toro during the Early Neolithic annular, tunnelled and bilobed shapes), spouts and impressed cordons. occupation (Phase IV, 5280–4780 cal. BCE 2σ). Within the degree of In the case of spouts and some handles, the sections and edges of holes fragmentation of ceramic vessels, the recognition of techniques was indicate that both these elements were drilled (Fig. 12a2). more feasible in those vessels for which a high number of diagnostic The systems used to add handles and lugs have been identified by a traces were preserved. In some vessels, however, the technical inter­ series of manufacturing traces, such as laminar fractures, cracks in the pretation was conditioned by the degradation and obliteration of cross-sections and burrs preserved in the internal and external surfaces. manufacturing traces, for reasons such as intensive surface treatments First, there is a predominance of superimposed elements on the edge of and decorations, the deterioration of fractures and the reuse of potsherds the rims (lenticular appendix and one over-lifted handle, n = 12) and as tools (García Rosselló and Calvo Trias 2013). elements attached by a simple hook (handles and cordons, n = 12) The coiling forming process was recognised by examining traces (Fig. 12a1). Second, handles can also be attached by partial insertions preserved in the topography and surfaces, the way in which vessels are creating a concavity on the walls (n = 13) or by pinching the surfaces (n fractured and the analysis of cross-sections in the radial plane. This = 6). The latter system is identified by the presence of hemispherical forming process is identified in several vessels which preserve the belly, hollows in the laminar fractures of the surfaces or at the ends of handles although it is predominant in the forming of the upper parts and rims. (Fig. 12a2 & 12b1). Finally, some handles can be attached by complete Overall, the use of coils is similar in terms of technical gestures (S/Z- insertions, using a pivot or a protuberance formed on their edges shaped configurations) and coil height. This may indicate that these (Fig. 12c1-c2). This system is the least frequent (n = 4), although this gestures correspond to a similar dynamic in the forming process of the may be a consequence of the non-formation of fractures and the lack of belly and upper parts of the vessels, with coils that were slightly or not handles undetached from the walls. deformed and, in some cases, more elongated. The examination of macro-traces also made it possible to distinguish 9 J. Cámara Manzaneda et al. Journal of Archaeological Science: Reports 37 (2021) 102936 Fig. 6. Macro-traces of the TCT2 forming method. a1. S/Z-shaped configurations on the cross-section at the end of the base and the belly. The orientation of particles and voids is oblique to vertical. a2. Undulations in the external topography of the belly (1) and regular topography with a large thickness at the base (2). b1. Oval- shaped fracture of the base. The internal surface of the base presents a laminar fracture (white discontinuous dashes) with an oblique edge (black discontinuous dashes). The correlation of these macro-traces suggests that bases were formed by an oval disc and the bellies were formed by oblique coils. Edition & photography: J. Cámara. 10 J. Cámara Manzaneda et al. Journal of Archaeological Science: Reports 37 (2021) 102936 (caption on next page) 11 J. Cámara Manzaneda et al. Journal of Archaeological Science: Reports 37 (2021) 102936 Fig. 7. Macro-traces associated with the TCT3 forming method. a1. Vertical fissure formed in the cross-section of the collar. This fissure forms a long intermediate discontinuity in the cross-section parallel to the surfaces. Surfaces also present internal and external laminations. a2. Detailed view of fissures parallels to the surfaces. b1. Laminar fractures on the external surface of the belly with wavy edges. b2. Horizontal cross-section of the belly with a layer parallel to the external surface. c. Sub-circular and circular-shaped fractures on the belly. This fracturing pattern is correlated with the laminar fractures and the horizontal cross-sections. d. Horizontal cross-section of the belly: horizontal layer placed towards the inner wall and sub-circular configurations placed towards the outer wall. Sub-circular configurations appear juxtaposed over the horizontal layer. e. Internal laminations on the collar with several layers. f. Burrs and fractures which merge together in subcircular shapes. Both sub-circular shapes appear juxtaposed on the internal surface of the belly. g1. Sub-circular sherd detached from the belly. The external surface of the sherd preserves decor motives whilst the internal surface presents an irregular texture with leveled areas and wavy burrs. g2. Horizontal burrs parallel to the wavy edges of the detached sherd. g3. Detailed view of burrs preserved on the internal surface. Together, these macro-traces suggest that the lower parts, the belly and the collar of this vessel were formed by circular juxtaposed elements. Edition & photography: J. Cámara. Fig. 8. Macro-traces associated with the TCT3 forming method. a1. Subcircular flat areas on the external topography. b1. Long oblique discontinuity associated with subcircular configurations in the radial plane. b2. Curvilinear fractures (1) and burrs (2) that merge together in circular elements. These macro-traces suggest the forming process of the belly with circular elements, probably each formed by a spiral coil (patches), partially juxtaposed among them. Edition & photography: J. Cámara. the forming technique of bases from the ones that uses several assembled patches that were partially juxtaposed to form entire ceramic vessels elements (TCT1) or an oval-shaped disc (TCT2). The interpretation of (Fig. 7). However, in those vessels with only partially preserved profiles, the assembled elements used in the TCT1 method may correspond to the juxtaposition of patches is only recognised in the belly. This may be several oval elements similar to the one that is used in the TCT2 forming because the vessels were entirely formed by juxtaposed patches or, method, although this hypothesis needs to be proven by other analytical contrarily, because the forming sequence combined the use of juxta­ methods. posed patches and the use of coils to build the upper parts and rim. The forming process with juxtaposed circular elements (TCT3) was Precisely, in several vessels in which the upper part and the rim are interpreted by comparing macro-traces with a series of recognisable formed by coils, the forming process of the belly cannot be recognised. traces – curvilinear fractures, burrs, an uneven topography and circular This is because of the low degree of preservation of the belly (n = 2) or a flat areas (Fig. 8a1) – documented in the ceramic assemblages from consequence of degradation and partial preservation of macro-traces (n several Early Neolithic sites from the Western Mediterranean (Gomart = 13) (Table 3). In fact, these vessels also have partial macro-traces – e. et al., 2017; Manen et al., 2019b). In Cueva de El Toro, these series of g., sub-circularities and laminar fractures with wavy edges – preserved traces suggest that these elements may also correspond to similar in the belly, for which insufficient referential ceramic series have been 12 J. Cámara Manzaneda et al. Journal of Archaeological Science: Reports 37 (2021) 102936 Fig. 9. Macro-traces observed in TCT4 forming method. a1. Horizontal variation on the external surface of the rim. The edge presents a ridge which allows its distinction on the external topography. b1. Cross-section of the base with parallel fissures to the surface. The orientation of particles and voids is vertical. b2. Detailed view of a cross-section of the belly: the paste is compressed and the distribution of porosity and particles is parallel to the surfaces. c1. Horizontal and diagonal grooves on the internal surface of the rim with internal striations, marked edges and flat sections. c2. Internal surface of the belly with linear striations, protruding grains (grainy texture) and particle extractions. c3. Bidirectional grooves on the internal surface of the base. Together, these macro-traces suggest that the base and the belly were moulded over a convex support whereas the rim was formed by horizontal coils and an external overlapped coil. The internal surface was subsequently smoothed (base and belly) and scraped (rim). Edition & photography: J. Cámara. reported to identify their forming process. In these cases, the technical 5.2. Comparison between pot-forming sequences and morpho-decorative origin of macro-traces must be verified by the application of other features methodologies. The moulding process (TCT4) of the base and the belly was only A first comparison between ceramic forming processes and morpho- recognised by examining macro-traces in a globular vessel that does not decorative traits has been conducted, which enables to propose several present decorations. This forming process reflects a set of traces related initial hypotheses regarding the correlation of these ceramic features to the use of an internal support, although it cannot be confirmed during the Early Neolithic occupation of Cueva de El Toro. whether it was moulded by a mass or by assembled elements since the The use of coils is linked with ceramic products of different shapes internal structure is compressed and the topography regularised. In this and sizes. In those vessels with preserved belly profiles, this forming regard, the hypothesis that the moulding process was performed by sequence is recognised in vessels with ovoid shapes, with collar and using circular elements detected on this site cannot be ruled out. globular shapes, the latter being predominant in the ceramic assemblage Finally, the last forming process concerns the pinching technique (Fig. 2: 9862, 9431, 88/1509, 41900). The forming process with circular (TCT5) which is associated to a small-size vessel without decors. elements also comprises vessels with a globular shape and collar (Fig. 2: 13 J. Cámara Manzaneda et al. Journal of Archaeological Science: Reports 37 (2021) 102936 Fig. 10. Macro-traces observed in the TCT5 forming method. a1: Irregular and vertical cracks located at the external and internal surface of the rim. a2: Individual hollow placed at the bottom of the base. Its shape is quadrangular and prompts vertically towards the inner surface of the belly. These macro-traces suggest the forming of the vessel by pinching from the base to the rim. Edition and photography: J. Cámara. Fig. 11. Box plot diagram with the distribution of coil height measures of the belly and the upper part from each ceramic individual (A) and scatter plot comparing coil height and wall-thickness measures of the belly (red squares) and the upper parts (green circles) from each ceramic vessel (B). Coil heights between 7.9 and 9.7 mm (1), 10.1–16.4 mm (2) and 17.6–19.1 mm (3). (For interpretation of the references to colour in this figure legend, the reader is referred to the web version of this article.) 14 J. Cámara Manzaneda et al. Journal of Archaeological Science: Reports 37 (2021) 102936 Fig. 12. Macro-traces associated with the attachment systems with grip elements. a1: External laminar fracture in the midpoint of the spout. a2: Laminar fracture and section of the broken edge of the spout with a hemispherical depression. These traces suggest that the spout was attached both by a simple hook (a1) and pinched (a2). b1: Detached handle with a laminar fracture which preserve two hemispherical depressions. These traces suggest that handles were added by partial insertions, pinching the edge of the handles. c1 & c2: Both broken ends of a geminated handle, which preserve the inner surface of the geminated vessel (black dashes). The edges show the protuberance used to insert completely the handle (white dashes). 15 J. Cámara Manzaneda et al. Journal of Archaeological Science: Reports 37 (2021) 102936 18127), while the vessel moulded over a convex support is only related (northwest France) (Gomart, 2014), Balatonszárszó-Kis-erdei-dűlő to a globular shape (Fig. 2: 8330). Hence, these forming processes seem (Hungary) (Kreiter et al., 2017) and Bylany (Czech Republic) (Neu­ to be used in the production of several vessel shapes (TCT1) or the same mannová et al., 2017; Thér et al., 2019), where forming sequences vary typology of vessels (TCT3 & TCT4). according to the gestures with which coils are assembled and deformed. Conversely, some forming methods were only identified in particular Hence, the assembly gestures of coils documented at these sites – S/Z- shapes and sizes of vessels. The use of the pinching technique (TCT5) is shaped configurations with slightly or not deformed coils - display restricted to a small-size vessel, which is also particularly located in a similarities with the coiling technique with alternate overlapping specific context inside the cave (Santana et al., 2019), isolated from the documented at Cueva de El Toro. rest of the ceramic production in the domestic area (Fig. 2: 6–235). The In the context of the Western Mediterranean, there are also forming of conical bases with a shaped disc (TCT2) have only been remarkable similarities between several vessels formed by circular ele­ identified in the two conical profiles preserved within the ceramic ments documented at Cueva de El Toro and the spiralled patchwork assemblage of Phase IV (Fig. 2: 6–339). This type of shape is widely technology located at the first farming sites of Abri Pendimoun and documented in the ceramic production from the southeast Iberian Arene Candide (Ligurian-Provencal Arc) (Gomart et al., 2017), as well as Peninsula (Carvalho, 2011; Manen et al., 2007) and northwest Africa (El la Farigoule 2, Peiro Signado and Pont de Roque-Haute (southeast Idrissi, 2012; Martínez Sánchez et al., 2018). Thus, the hypothesis that France, 5800–5600 cal. BCE) (Manen et al., 2019b). The Impressa pot­ the production of such vessels may be linked to the forming of the lower tery from these sites show several traces that reflect the use of spiralled parts with an oval disc cannot be ruled out. patches to uniformly build ceramic vessels. In the case of Cueva de El Concerning grip elements, it is interesting to note that no joining Toro, the morphology of macro-traces preserved in the ceramic assem­ system can be strictly associated with any specific type of handle. For blage do not enable us to completely verify whether all these circular instance, spouts and handles are attached with partial insertions by elements were also formed by a spiral coil. If so, the evidence of this pinching the walls or with complete insertions by drilling the walls. This technology at Cueva de El Toro would reflect the continuity of this suggests that these variations might correspond to distinct ways of doing technique in more recent chronologies and its distribution in more in the ceramic production methods or that the use of these systems was remote areas from the Western Mediterranean, such as the southern conditioned by functional factors in order to ensure the stability of Iberian Peninsula. handles and lugs on the walls. On the contrary, there are no currently available data on the forming When comparing forming processes and decorations, no clear rela­ of the first ceramic productions from the Western Mediterranean using tion can be established between these two pottery features. As with oval discs, the pinching technique or the moulding process. In particular, shapes, vessels formed by coils comprise distinct decorations, including the use of internal supports to shape the lower parts and belly of vessels those vessels with only the upper part and rim preserved. Together, is not currently documented for the Early Neolithic in Europe. The latest these vessels include the majority of the decorations documented in technological data reported suggests the use of concave supports in LBK Phase IV: the use of incisions, impressions, applied cordons, boquique contexts to shape bases that were previously made by spiralled coils (stab-and-drag) and the application of almagra (Camalich Massieu and (Gomart, 2014) or remarkably at Polgár-Ferenci-hát (Hungary) where Martín-Socas, 2013). Vessels formed by circular elements are also the base and the belly of vessels are formed by coils and shaped by associated with decorations that combine incisions and impressions, the moulding against concave supports (Gomart et al., 2020). In contrast, in almagra or the boquique. more recent chronologies the moulding technique over convex supports The surface decoration with almagra represents one of the most is well-documented at Mines de Gavà (northwest Iberian Peninsula) widespread decorations during the Early Neolithic in Andalusia (García (Calvo Peña, 2019) and in the Aisne valley (northeast France) (Colas Borja et al., 2014; Martín-Socas et al., 2018), while the boquique is et al., 2015). mainly concentrated in inland regions of the Iberian Peninsula (Alday and Moral del Hoyo, 2011). In contrast, decorations with incisions and 6. Conclusions impressions are documented across the Iberian Peninsula and southern France in the late 6th millennium cal. BCE (García Martínez et al., 2011; The technological study of the ceramic assemblage of Cueva de El Guilaine and Manen, 2012; Oms et al., 2016). Results from Cueva de El Toro provides the first empirical evidence of the techniques that were Toro show that these decorations appear to be related to the forming used in pottery-manufacturing processes during the Early Neolithic in processes of coils and the use of juxtaposed circular elements. This the south of the Iberian Peninsula. The results obtained based on the possibility, along with the hypotheses formulated for the shapes, needs examination of manufacturing traces reveal that several ways of doing to be further investigated through the development of new research and coexisted during the occupations of Phase IV at Cueva de El Toro. These contrasted with other ceramic assemblages from Early Neolithic con­ ways of doing are represented by the use of coils – with alternate texts with similar morpho-decorative features located in this area of the overlapping and slightly or not deformed -, which predominate in the Iberian Peninsula. forming of the upper part and rim of vessels; the juxtaposition of circular elements and, in particular, the moulding process with convex supports. 5.3. Context and chronological framework of the first pottery forming Precisely, the coil forming sequence and the use of patches identified on processes during the Early Neolithic this site also bear similarities with the pot-forming processes docu­ mented to date for the Early Neolithic in Western Europe. Furthermore, Current technological studies on the first pottery forming processes this study reveals the use of other forming techniques – elements with have revealed several trajectories regarding the technical practices used oval shapes and the pinching technique – that are practically unknown in pottery manufacture that spread with the Neolithisation process. in Early Neolithic contexts from the Western Mediterranean. Altogether, Overall, pottery forming processes identified in Cueva de El Toro fit with these ways of doing may indicate that the communities who periodically the forming-sequences documented in several Early Neolithic sites from inhabited the cave during the Early Neolithic (5280–4780 cal. BCE 2σ) the Mediterranean basin and Western Europe (Fig. 1). At Colle Santo possessed and used different techniques to produce ceramic vessels. This Stefano and Ripa Tetta (southeast Italy, 5800–5600 cal. BCE), the vessels interpretation is also supported by comparing forming processes with are built with thin or elongated, obliquely assembled (S-shaped con­ the typology of vessels, which reflect that different forming techniques figurations) or superimposed (O-shaped configurations) coils (Angeli can be used in the production of several pottery shapes. Moreover, no and Fabbri, 2017; Colombo, 2017; Gomart et al., 2017). In Central clear relationship can be established when comparing these forming Europe, coiling techniques are also widely documented in the ceramic sequences with decorations, which may therefore suggest that decora­ production of several LBK sites, such as Cuiry-lès-Chaudardes tions were possibly not related to these technical features of ceramic 16 J. Cámara Manzaneda et al. Journal of Archaeological Science: Reports 37 (2021) 102936 manufacturing processes. by anonymous reviewers, which improved the earliest version of the This investigation has also been compared and contextualised with paper. the distribution of the first pottery forming processes discovered around Western Europe during the Early Neolithic. The coiling technique and Appendix A. Supplementary data the patchwork technology, which appear in southeast Italy and south­ east France and the Ligurian-Provencal Arch respectively (Gomart et al., Supplementary data to this article can be found online at https://doi. 2017; Gomart et al., forthcoming), is documented in Cueva de El Toro org/10.1016/j.jasrep.2021.102936. during the Early Neolithic occupation. This data, which must be further investigated in new studies, may confirm the distribution of similar References techniques in more recent chronologies in the south of the Iberian Peninsula. Hence, these forming processes could be an indicator of the Alday, A., Moral del Hoyo, S. 2011. El dominio de la cerámica boquique: discusiones connections between the southern Iberian Peninsula and the Neo­ técnicas y cronoculturales, in: Bernabeu, J., Rojo Guerra, M.A., Molina, L. (Eds.), Las lithisation process of the Central and Western Mediterranean, in line primeras producciones cerámicas: el VI milenio cal BC en la Península Ibérica. Saguntum: Papeles Del Laboratorio de Arqueología de Valencia. Valencia, pp. 65–82. with the results of other investigations, such as DNA analyses, among Angeli, L., Fabbri, C. 2017. Matières premières et technologie : l’exemple de la céramique which Cueva de El Toro is included (Fregel et al., 2018). However, there imprimée de Colle Santo Stefano (Italie), in: Burnez-Lanotte, L. (Ed.), Matières à are forming processes such as the use of oval discs and the use of internal Penser: Raw materials acquisition and processing in Early Neolithic pottery productions. Proceedings of the Workshop of Namur (Belgium) 29-30 May 2015 supports for which no references have been currently reported in the University of Namur. Séances de la Société Préhistorique Française 11. Société context of the Early Neolithic in the Western Mediterranean. These Préhistorique Française, Paris, pp. 93–108. cases, which must be compared with other archaeological contexts, may Bernabeu, J., Gómez Pérez, O., Molina, Lluís, García Borja, P. 2011. La cerámica neolítica durante VI milenio cal AC en el Mediterráneo central peninsular, in: Bernabeu, J., reflect a more complex panorama of the technical practices that were Rojo Guerra, M.A., Molina, Lluís (Eds.), Las primeras producciones cerámicas: el VI used in the manufacture of the first pottery productions during the Early milenio cal BC en la Península Ibérica. Saguntum: Papeles Del Laboratorio de Neolithic in this area. Arqueología de Valencia. Valencia, pp. 153–178. Bernabeu, J., Lozano, S., Pardo-Gordó, S., 2017. Iberian Neolithic networks: The rise and Ultimately, the hypotheses formulated from this site must be prop­ fall of the Cardial World. Front. Digit. Humanit. 4, 1–19. https://doi.org/10.3389/ erly contrasted with new analyses (X-ray imaging, µCT, thin sections) fdigh.2017.00007. and the examination of a greater number of sites in order to increase our Bernabeu, J., Martí Oliver, B., 2014. The first agricultural groups in the Iberian peninsula. In: Guilaine, J., Manen, C., Perrin, T. (Eds.), La Transition Néolithique En knowledge on the distribution of the first ceramic forming processes Méditerranée. The Neolithic Transition in the Mediterranean. Errance & Archives during the Early Neolithic in the Iberian Peninsula. d’écologie préhistorique, Toulouse, pp. 419–438. Binder, D., Clop, X., Convertini, F., Manen, C., Sénépart, I. 2010. Les productions CRediT authorship contribution statement céramiques du Néolithique ancien entre Provence et Catalogne, in: Manen, C., Convertini, F., Binder, D., Sénépart, I. (Eds.), Premières sociétés paysannes de Méditerranée occidentale. Structure des productions céramiques. Séance de la Javier Cámara Manzaneda: Conceptualization, Methodology, Société Préhistorique Française, Toulouse, 11-12 Mai 2007, Mémoires de la Société Formal analysis, Investigation, Visualization, Writing - original draft, Préhistorique Française 51. Société préhistorique française, Paris, pp. 115–129. Binder, D., Lanos, P., Angeli, L., Gomart, L., Guilaine, J., Manen, C., Maggi, R., Muntoni, Writing - review & editing. Xavier Clop García: Conceptualization, I.M., Panelli, C., Radi, G., Tozzi, C., Arobba, D., Battentier, J., Brandaglia, M., Bouby, Supervision, Project administration, Funding acquisition, Writing - L., Briois, F., Carré, A., Delhon, C., Gourichon, L., Marinval, P., Nisbet, R., Rossi, S., original draft, Writing - review & editing. Jaume García Rosselló: Rowley Conwy, P., Thiébault, S. 2017. Modelling the earliest north-western dispersal of Mediterranean Impressed Wares: new dates and Bayesian chronological model. Conceptualization, Methodology, Supervision, Writing - original draft, Doc. Praehist. 44, 54–77. https://doi.org/10.4312/dp.44.4. Writing - review & editing. Maria Dolores Camalich Massieu: Bosquet, D., Livingstone Smith, A., Fock, H. 2005. La chaîne opératoire de la céramique Conceptualization, Visualization, Project administration, Funding rubanée : première tentative de reconstitution, in: Livingstone Smith, Alexander, Bosquet, D., Martineau, R. (Eds.), Pottery Manufacturing Processes: Reconstitution acquisition, Writing - original draft, Writing - review & editing. Dimas and Interpretation. BAR International Series, 1349. Archaeopress, Oxford, pp. Martín-Socas: Conceptualization, Project administration, Funding 103–114. acquisition, Writing - original draft, Writing - review & editing. Bril, B., 2002. L’apprentissage des gestes techniques: ordre de contraintes et variations culturelles. In: Bril, B., Roux, V. (Eds.), Revue d’Anthropologie Des Connaissances, Technologies/Idéologies/Practiques. Erès, Ramonville Saing-Agne, pp. 113–150. Declaration of Competing Interest Calvo Peña, S. 2019. Aproximación y caracterización de la tecnología de fabricación de los recipientes cerámicos en las minas prehistóricas de Gavà. Dissertation, The authors declare that they have no known competing financial Universitat Autònoma de Barcelona. Calvo Trias, Manuel, García Rosselló, Jaime, 2014. Acción técnica, interacción social y interests or personal relationships that could have appeared to influence práctica cotidiana: propuesta interpretativa de la tecnologíaAcción técnica, the work reported in this paper. interacción social y práctica cotidiana: propuesta interpretativa de la tecnología. Trab. Prehist. 71 (1), 7–22. https://doi.org/10.3989/tp.2014.12121. Camalich Massieu, M.D., Martín-Socas, D. 2013. Los inicios del neolítico en Andalucía. Acknowledgements Entre la tradición y la innovación, in: Martín-Socas, D., Camalich Massieu, M.D. (Eds.), Entre Dos Aguas. Tradición e Innovación En Las Sociedades Neolíticas de This work was funded by the Ministerio de Economía y Com­ Andalucía, Menga. Revista de Prehistoria de Andalucía. pp. 103–129. Cámara, J., 2019. Entre trazas, gestos y productores : el análisis traceológico como petitividad (Spain), under the projects “Arqueobioquímica de la método de aproximación a las técnicas de modelado en las producciones cerámicas alimentación durante el neolítico peninsular: nuevos marcadores y ref­ prehistóricas. Treballs d’Arqueologia 23, 37–61. https://doi.org/10.5565/rev/ erenciales para el estudio de las pautas de producción y consumo en tda.94. Capelli, Claudio, Starnini, Elisabetta, Cabella, Roberto, Piazza, Michele, 2017. The Arqueología” (HAR2017-88304-P) and “Tecnología y Sociedad. Las circulation of Early Neolithic pottery in the Mediterranean: A synthesis of new primeras artesanías de las comunidades neolíticas en Andalucía oriental archaeometric data from the Impressed Ware culture of Liguria (north-west Italy). entre el VI y III milenio ANE” (HAR2016-78197-P), and for the Gen­ J. Archaeol. Sci. Rep. 16, 532–541. https://doi.org/10.1016/j.jasrep.2017.03.022. Carvalho, A.F., 2011. Produçâo cerâmica no inicio do Neolítico de Portugal, in: eralitat de Catalunya, under the project “Grup de Recerques Bernabeu, J., Rojo Guerra, M.A., Molina, L. (Eds.), Las primeras producciones Arqueològiques al Mediterrani i al Proper Orient (GRAMPO)” (2017 cerámicas: el VI milenio cal BC en la Península Ibérica. Saguntum: Papeles Del SGR 1302). Laboratorio de Arqueología de Valencia. Valencia, pp. 237–252. Clop, X. 2011. Caracterización petroarqueológica de cerámicas decoradas del Neolítico Javier Cámara is a predoctoral researcher with a FI-DGR 2017 grant antiguo de la península Ibérica, in: Bernabeu, J., Rojo Guerra, M.A., Molina, L. (No.: 00567) funded by Generalitat de Catalunya. (Eds.), Las Primeras Producciones Cerámicas: El VI Milenio Cal BC En La Península The authors wish to thank Dr. L. Gomart (CNRS, UMR 8215 Tra­ Ibérica. Saguntum: Papeles Del Laboratorio de Arqueología de Valencia. Valencia, jectoires) for her helpful comments and observations to identify the new pp. 35–52. Clop, X. 2012. Extensión, cambios y perduración en las “formas de hacer”: la producción technologies discovered in the ongoing researches on prehistoric pot­ de cerámica y el uso de desgrasantes añadidos, in: Borrell, M., Borrell, F., Bosch, J., tery. The authors also wish to thank the comments and criticisms made Clop, X., Molist, M. (Eds.), Congrés Internacional Xarxes al Neolític - Networks in the 17 J. Cámara Manzaneda et al. Journal of Archaeological Science: Reports 37 (2021) 102936 Neolithic. Rubricatum. Revista Del Museu de Gavà, 5. Ajuntament de Gavà, Gavà/ Early Neolithic pottery productions. Proceedings of the Workshop of Namur Bellaterra, pp. 369–374. (Belgium) 29-30 May 2015 University of Namur. Séances de la Société Préhistorique Colas, C., Gomart, L., Giligny, F., 2015. Les techniques de fabrication des poteries Française 11. Société Préhistorique Française, Paris, pp. 111–132. néolithiques de l’Aisne du Rubané au Néolithique Final: choix et traditions. Rev. Lepère, Cédric, 2014. Experimental and traceological approach for a technical Archéologique Picardie 3 (4), 121–134. interpretation of ceramic polished surfaces. J. Archaeol. Sci. 46, 144–155. https:// Colombo, M., 2017. Il complesso del villaggio neolitico di Ripatetta (Lucera - FG): note di doi.org/10.1016/j.jas.2014.03.010. tecnologia ceramica. In: Atti Della XLVII Riunione Scientifica Dell’Istituto Italiano Di Livingstone Smith, A., 2007. Chaîne Opératoire de la poterie. Références Preistoria e Protostoria “Preistoria e Protostoria Della Puglia” (Ostuni, 9–13 Ottobre ethnographiques, analyses et reconstitution. Royal Museum for Central Africa 2012). Istituto Italiano di Preistoria e Protostoria, Firenze, pp. 683–687. (MRAC-KMMA), Tervuren. Égüez, N., Mallol, C., Martín Socas, D., Camalich Massieu, M.D. 2016. Radiometric dates Manen, C., Convertini, F. 2012. Neolithization of the Western Mediterranean: Pottery and micromorphological evidence for synchronous domestic activity and sheep productions, circulation and recombination, in: Borrell, M., Borrell, F., Bosch, J., penning in a Neolithic cave: Cueva de El Toro (Málaga, Antequera, Spain). Archaeol. Clop, X., Molist, M. (Eds.), Congrés Internacional Xarxes al Neolític - Networks in the Anthropol. Sci. 8, 107–123. https://doi.org/10.1007/s12520-014-0217-0. Neolithic. Rubricatum. Revista Del Museu de Gavà, 5. Ajuntament de Gavà, Gavà/ El Idrissi, A. 2012. Le Néolithique du Maroc: État de la question, in: Borrell, M., Borrell, Bellaterra, pp. 363–368. F., Bosch, J., Clop, X., Molist, M. (Eds.), Congrés Internacional Xarxes al Neolític - Manen, C., Marchand, G., Carvalho, A.F., 2007. Le Néolithique ancien de la péninsule Networks in the Neolithic. Rubricatum. Revista Del Museu de Gavà, 5. Ajuntament Ibérique: vers une nouvelle évaluation du mirage africain ? In: Evin, J. (Ed.), XXVIe de Gavà, Gavà/Bellaterra, pp. 333–342. Congrès Préhistorique de France. Socièté Préhistorique Française, Paris, Fregel, R., Méndez, F.L., Bokbot, Y., Martín Socas, D., Camalich Massieu, M.D., pp. 133–151. Santana, J., Morales, J., Ávila Arcos, M.C., Underhill, P.A., Shapiro, B., Wojcik, G., Manen, C, Perrin, T, Guilaine, J, Bouby, L, Bréhard, S, Briois, F, Durand, F, Marinval, P, Rasmussen, M., Soares, A.E.R., Kapp, J., Sockell, A., Rodríguez Santos, F.J., Vigne, J-D, 2019a. The Neolithic Transition in the Western Mediterranean: A Mikdad, A., Trujillo Mederos, A., Bustamante, C.D., 2018. Ancient genomes from complex and non-linear diffusion process—the radiocarbon record revisited. North Africa evidence prehistoric migrations to the Maghreb from both the Levant Radiocarbon 61 (2), 531–571. https://doi.org/10.1017/RDC.2018.98. and Europe. Proc. Natl. Acad. Sci. U. S. A. 115, 6774–6779. https://doi.org/ Manen, C., Perrin, T., Raux, A., Binder, D., Le Bourdonnec, F.-X., Briois, F., Convertini, F., 10.1073/pnas.1811169115. Dubernet, S., Escallon, G., Gomart, L., Guilaine, J., Hamon, C., Philibert, S., Gabriele, Marzia, Convertini, Fabien, Verati, Chrystele, Gratuze, Bernard, Queffelec, A., 2019b. Le sommet de l’iceberg ? Colonisation pionnière et Jacomet, Suzanne, Boschian, Giovanni, Durrenmath, Gilles, Guilaine, Jean, néolithisation de la France méditerranéenne. Bull. la Société préhistorique française Lardeaux, Jean-Marc, Gomart, Louise, Manen, Claire, Binder, Didier, 2019. Long- 116, 317–361. distance mobility in the North-Western Mediterranean during the Neolithic Martín-Socas, Dimas, Camalich Massieu, María Dolores, Herrero, José Luis Caro, transition using high resolution pottery sourcing. J. Archaeol. Sci. Rep. 28, 102050. Rodríguez-Santos, F. Javier, 2018. The beginning of the Neolithic in Andalusia. https://doi.org/10.1016/j.jasrep.2019.102050. Quat. Int. 470, 451–471. https://doi.org/10.1016/j.quaint.2017.06.057. García Borja, P., Aura, J.E., Jordá Pardo, J.F., Salazar-García, D.C., 2014. La cerámica Martín-Socas, D., Camalich Massieu, M.D., González Quintero, P. 2004. La Cueva de El neolítica de la Cueva de Nerja (Málaga, España): Salas del Vestíbulo y la Mina. Arch. Toro (Sierra del Torcal, Antequera, Málaga): un modelo de ocupación ganadera en el Prehist. Levantina 30, 81–131. territorio andaluz entre el VI y II milenios A.N.E., Arqueología. Monografías. Junta Martínez, García, de Lagrán, Í., Garrido, R., Rojo Guerra, M.A., Alday, A., García de Andalucía, Consejería de Cultura, Sevilla. Gazólaz, J., Sesma, J., 2011. Cerámicas, estilo y neolitización: estudio comparativo Martineau, R. 2000. Poterie, techniques et sociétés. Etudes analytiques et expérimentales de algunos ejemplos de la meseta norte y alto valle del Ebro. In: Bernabeu, J., Rojo à Chalain et Clairvaux (Jura), entre 3200 et 2900 av.J.-C. Dissertation, Université de Guerra, M.A., Molina, L. (Eds.), Las primeras producciones cerámicas: el VI milenio Franche-Comté. cal BC en la Península Ibérica. Papeles Del Laboratorio de Arqueología de Valencia. Martineau, R., 2010. Brunissage, polissage et degrés de séchage. Un référentiel Valencia, Saguntum, pp. 83–104. expérimental. Les Nouv. l’archéologie 119, 13–19. https://doi.org/10.4000/nda. García Rosselló, J., Calvo Trias, M. 2013. Making Pots. El modelado de la cerámica y su 959. potencial interpretativo, BAR International Series, 2193. Archaeopress, Oxford. Martínez-Sánchez, Rafael M., Vera-Rodríguez, Juan Carlos, Pérez-Jordà, Guillem, Peña- García Rosselló, J., Calvo Trias, M., 2019. Etnoarqueología como experimentación: Chocarro, Leonor, Bokbot, Youssef, 2018. The beginning of the Neolithic in propuesta para la interpretación de los patrones de fractura. Treballs d’Arqueologia northwestern Morocco. Quat. Int. 470, 485–496. https://doi.org/10.1016/j. 23, 181–202. https://doi.org/10.5565/rev/tda.108. quaint.2017.05.052. Gelbert, A. 2005. Reconaissance des techniques et des méthodes de façonnage par Neumannová, K., Petřík, J., Vostrovská, I., Dvořák, J., Zikmund, T., Kaiser, J., 2017. l’analyse des macrotraces: étude ethnoarchéologique dans la vallée du Sénégal, in: Variability in coiling technique in LBK pottery inferred by experiments and pore Livingstone Smith, A., Bosquet, D., Martineau, R. (Eds.), Pottery Manufacturing structure micro-tomography analysis. Archeol. Rozhl. 69, 172–186. Processes: Reconstitution and Interpretation. BAR International Series, 1349. Oms, F. Xavier, Esteve, Xavier, Mestres, Josep, Martín, Patricia, Martins, Haidé, 2014. La Archaeopress, Oxford, pp. 67–78. neolitización del nordeste de la Península Ibérica: datos radiocarbónicos y culturales Gomart, L., 2014. Traditions techniques et production céramique au Néolithique ancien. de los asentamientos al aire libre del PenedèsLa neolitización del nordeste de la Étude de huit sites rubanés du nord est de la France et de Belgique. Sidestone Press, Península Ibérica: datos radiocarbónicos y culturales de los asentamientos al aire Leiden. libre del Penedès. Trab. Prehist. 71 (1), 42–55. https://doi.org/10.3989/ Gomart, Louise, Weiner, Allon, Gabriele, Marzia, Durrenmath, Gilles, Sorin, Sabine, tp.2014.12123. Angeli, Lucia, Colombo, Marta, Fabbri, Cristina, Maggi, Roberto, Panelli, Chiara, Oms, F.X., Martín, A., Esteve, X., Mestres, J., Morell, B., Subirà, M.E., Gibaja, J.F. 2016. Pisani, Didier F., Radi, Giovanna, Tozzi, Carlo, Binder, Didier, 2017. Spiralled The neolithic in northeast iberia: Chronocultural phases and 14C. Radiocarbon 58, patchwork in pottery manufacture and the introduction of farming to Southern 291–309. https://doi.org/10.1017/RDC.2015.14. Europe. Antiquity 91 (360), 1501–1514. https://doi.org/10.15184/aqy.2017.187. Rigaud, S., Manen, C., García Martínez de Lagrán, Í. 2018. Symbols in motion: Flexible Gomart, L., Anders, A., Kreiter, A., Marton, T., Oross, K., Raczky, P., 2020. Innovation or cultural boundaries and the fast spread of the Neolithic in the western inheritance? Assessing the social mechanisms underlying ceramic technological Mediterranean. PLoS One 1–18. https://doi.org/10.1371/journal.pone.0196488. change in early Neolithic pottery assemblages in Central Europe. In: Spataro, M., Roux, V. 2011. Anthropological interpretation of ceramic assemblages: foundations and Furholt, M. (Eds.), Detecting and Explaining Technological Innovations in implementations of technological analysis, in: Scarella, S. (Ed.), Archaeological Prehistory. Sidestone Press, Leiden, pp. 49–72. Ceramics: A Review of Current Research. BAR International Series, 2540. Oxford: Gomart, L., Angeli, L., Guilaine, J., Maggi, R., Manen, C., Muntoni, I.M., Natali, E., Archaeopress, pp. 80–88. Panelli, C., Radi, G., Radina, F., Tusa, S., Binder, D., forthcoming. A major ceramic Roux, V. 2016. Des céramiques et des hommes. Décoder les assemblages archéologiques. technical rupture within the Impressed Ware complex questions the models of Presses universitaires de Paris Ouest, Nanterre. Neolithisation in the north-western Mediterranean, in: Binder, D. (Ed.), Western Roux, V. 2019. Ceramics and Society. A technological approach to archaeological Mediterranean Impressed Wares. An Interdisciplinary Research on Early Neolithic assemblages. Cham, Switzerland: Springer International Publishing. https://doi. Pottery (6th Millennium Cal BC): Sourcing, Production, Uses and Transfers, Séance org/10.1007/978-3-030-03973-8. de La Société Préhistorique Française. Roux, Valentine, Bril, Blandine, Cauliez, Jessie, Goujon, Anne-Lise, Lara, Catherine, Gosselain, O.P., 2000. Materializing Identities: An African Perspective. J. Archaeol. Manen, Claire, de Saulieu, Geoffroy, Zangato, Etienne, 2017. Persisting Method Theory 7, 187–217. https://doi.org/10.2307/20177420. technological boundaries: Social interactions, cognitive correlations and Gosselain, O.P., 2011. Fine if i do, fine if i don’t. Dynamics of technical knowledge in polarization. J. Anthropol. Archaeol. 48, 320–335. https://doi.org/10.1016/j. sub-Saharan Africa. In: Roberts, B.W., Vander Linden, M. (Eds.), Investigating jaa.2017.09.004. Archaeological Cultures: Material Culture, Variabilty, and Transmission. Springer, Rye, O.S. 1981. Pottery technology: Principles and reconstruction. Washington, D.C.: New York (NY), pp. 211–227. https://doi.org/10.1007/978-1-4419-6970-5. Taraxacum. Guilaine, J., 2013. The Neolithic Transition in Europe: some comments on gaps, contacts, Santana, Jonathan, Rodríguez-Santos, Francisco Javier, Camalich-Massieu, María arrhythmic model, genetics. In: Starnini, E. (Ed.), Unconformist Archaeology: Papers Dolores, Martín-Socas, Dimas, Fregel, Rosa, 2019. Aggressive or funerary in Honour of Paolo Biagi. Archaeopress, Oxford, pp. 55–64. cannibalism? Skull-cup and human bone manipulation in Cueva de El Toro (Early Guilaine, J., Manen, C. 2012. From Mesolithic to Early Neolithic in the western Neolithic, southern Iberia). Am. J. Phys. Anthropol. 169 (1), 31–54. https://doi.org/ Mediterranean, in: Going over: The Mesolithic-Neolithic Transition in the North- 10.1002/ajpa.23805. West Europe. Cardiff, pp. 21–51. Stempfle, S., Linstädter, J., Nickel, K.G., Mikdad, A., Schmidt, P. 2018. Early Neolithic Hammer, Ø., Harper, D.A.T., Ryan, P.D., 2001. PAST: Paleontological statistics software pottery of Ifri n’Etsedda, NE-Morocco – Raw materials and fabrication techniques. J. package for education and data analysis. Palaeontol. Electron. 4, 9. Archaeol. Sci. Reports 19, 200–212. https://doi.org/10.1016/j.jasrep.2018.02.042. Kreiter, A., Marton, T., Gomart, L., Oross, K., Pánczél, P. 2017. Looking into houses: Tarifa, N., Clop, X., Rosell Melé, A., Camalich Massieu, M.D., Comes Bordas, P., Martín analysis of LBK ceramic technological change on a household level, in: Burnez- Socas, D., Nonza Micaelli, A., Rodríguez Santos, F.J. 2019. New insights from Lanotte, L. (Ed.), Matières à Penser: Raw materials acquisition and processing in Neolithic pottery analyses reveal subsistence practices and pottery use in early 18 J. Cámara Manzaneda et al. Journal of Archaeological Science: Reports 37 (2021) 102936 farmers from Cueva de El Toro (Málaga, Spain). Archaeol. Anthropol. Sci. 11, potters. J. Archaeol. Sci. Reports 26, 1–14. https://doi.org/10.1016/j. 5199–5211. https://doi.org/10.1007/s12520-019-00874-9. jasrep.2019.101877. Thér, R., Květina, P., Neumannová, K., 2019. Coiling or slab building: Potential of Van Doosselaere, B., Burnez-Lanotte, L., Gomart, L., Livingstone Smith, A., 2013. Analyse orientation analysis for identification of forming techniques used by Early Neolithic technologique de céramiques du Néolithique ancien de Vaux-et-Borset (Hesbaye, B): résultats préliminaires. Notae Praehistoricae 33, 15–26. 19