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Mugharat an-Nachcharini: A specialized sheep-hunting camp reveals high-altitude habitats in the earliest Neolithic of the Central Levant


The earliest Neolithic of southwest Asia is generally perceived and portrayed as a period of emerging economic practices that anticipated full-fledged food-producing economies. This first Neolithic, however, can also be seen as the last gasp of an earlier way of life that remained fundamentally Epipaleolithic in character. While people at this time had begun to cultivate some of the plant foods gathered in preceding periods, and to live for lengthy periods in sites with substantial architecture, they also relied on hunting for a significant portion of their diet and logistical movement across landscapes to exploit diverse environments. The objective of our research on Nachcharini Cave, the only excavated early Neolithic site in the high mountains of northeastern Lebanon, is to evaluate its role in a form of logistical organization not well attested at other sites in the Levant during this period. On the basis of material that Bruce Schroeder excavated in the 1970s, we present here for the first time analyses of faunal and lithic evidence from Nachcharini Cave, along with new radiocarbon dates that place the major occupation layer of the site firmly in the earliest Neolithic. We conclude that Nachcharini was a short-term hunting camp that was periodically used over some two centuries.


The prevailing picture of the shift from mobile hunter-gatherer adaptations to village farming communities in the Middle East portrays a complex process in which changes in settlement, ritual, and mobility preceded clear morphological evidence for subsistence based on domesticated crops and subsequently domesticated animals [14]. In this process, the early Pre-Pottery Neolithic A (PPNA), which corresponds to the climatic amelioration that followed the end of the Younger Dryas, was a critical transition during which increased nucleation, more permanent settlement, and examples of monumental architecture provide evidence for social cohesion and display [57]. However, while the prevalence of grinding stones signals the important role of plant foods in diet and there is strong evidence for crop cultivation at some sites, evidence for plant domestication is minimal [810], and the exploitation of ungulates shows little change from the preceding Natufian period [11].

We present here the first comprehensive overview of the results of Bruce Schroeder’s excavations at the PPNA site of Mugharat an-Nachcharini in the Anti-Lebanon Mountains (Fig 1), including AMS radiocarbon age determinations, the characteristics of the lithic assemblage, and the composition of the ungulate faunal assemblage. These results confirm Schroeder’s identification of Mugharat an-Nachcharini as a short-term hunting camp, a previously unattested type of PPNA occupation, that was contemporary with the large Sultanian sites of the Jordan Valley and has particularly strong parallels to Netiv Hagdud. Furthermore, Nachcharini is the first PPNA site to show a predominance of sheep in the hunted fauna. These results support the view of PPNA society as consisting of hunter-gatherers who practiced logistical foraging, with both base camps in the form of substantial villages, and specialized sites, such as the hunting camp at Nachcharini.

Fig 1. Map of region showing location of Nachcharini Cave and other sites mentioned herein.

Map by the authors. Sources: Hillshade: Airbus, USGS, NGA, NASA, NOAA, CGIAR, GEBCO, NLS, OS, NMA, Geodatastyrelsen, GSA, GSI and the GIS User Community; World Imagery (Clarity): Esri, DigitalGlobe, GeoEye, Earthstar Geographics, and the GIS User Community. This work is licensed under the Esri Master License Agreement. Site locations based on researcher database.

Site background

Nachcharini Cave (Fig 2) is located at an elevation of ca. 2100 masl in the central ‘Ard al-Kichek plateau of the Anti-Lebanon Mountains (al-Jebel ash-Sharqi) in eastern Lebanon, near the modern border with Syria [1214]. Unlike the lowland villages that have been the focus of most research on this period, Nachcharini is thus at the highest elevation of any known early Neolithic site in the Levant, making it a truly montane site. Its environs are characterized by rolling land broken by karstic sinkholes that create small, steep-walled canyons and valleys. These landforms provide a good potential habitat for wild sheep, and there are steeper peaks and slopes nearby that would provide habitat for wild goat and mountain gazelle. The presence of deer in the Nachcharini faunal assemblage suggests proximity to wooded areas. During winter, the plateau receives significant snowfall, and snow often persists there until May or June. The plateau may well have sustained vegetation suitable for grazing and browsing herbivores into the late summer, when available resources may have diminished in the adjacent lowlands.

Fig 2. Views of Nachcharini Cave and environs.

a) view of cave mouth looking east, b) view of ‘Ard al-Kishek plateau looking west from cave, c) view of excavation units at end of season, summer 1974, looking east. All photos by B. Schroeder.

Jacque Besançon discovered Nachcharini Cave about 1970, and Bruce Schroeder subsequently excavated at the site in 1972 and 1974. Significant disturbances at the site substantially reduced the area available for excavation. The 1972 season produced a stratigraphic profile in an exposure of approximately 0.5 m2 and pointed to the richness of the PPNA component (Fig 3). The excavation of 1974 expanded the initial exposure of the PPNA to a total of approximately 3 m2. Excavation was in 1 m2 units, subdivided into 9 subsquares, with baulks left that reduced the excavation area (Fig 2C). Schroeder’s excavation involved attention to full recovery of all materials and is an early example of the use of the décapage method, with exposure and photography of in situ surfaces of artifacts and fauna preceding any removals. Schroeder identified a sequence of five levels (Fig 3). Here we focus on Layer 4d at the bottom of PPNA Layer 4, in which Schroeder exposed a dense concentration of remains. Layer 4d was reached in three squares (D9, D10, and E9) although part of the area was disturbed by intrusive pits. As Fig 4 shows, Layer 4d was excavated as two surfaces, the upper 4d1 and the immediately underlying 4d2. In 2001, work by the Nachcharini Highland Survey Project confirmed Schroeder’s original stratigraphy and found that looting had further damaged the site [13].

Fig 3. Stratigraphic profile of Schroeder’s excavations at Nachcharini Cave.

L. Wadsworth and S. Rhodes after original by B. Schroeder.

Fig 4. Photographs of layer 4d in situ material prior to removal, exemplifying the décapage method.

Photos by B. Schroeder.

Materials and methods

All material from Schroeder’s original excavations in 1972 and 1974 was screened through 5mm mesh at the time of excavation, resulting in excellent recovery of faunal remains and lithics. The Department of Anthropology at the University of Toronto curates the collections of material from Nachcharini Cave that Schroeder was permitted to export. The lithics in Toronto constitute diagnostic artifacts from both disturbed contexts and the excavation. A portion of the excavated assemblage was left in Beirut and the current status of this material is unknown. Lithic counts based on the excavation notebooks (see discussion of lithics below) provide an estimate of the total size of the assemblage and make it clear that the Toronto sample lacks non-diagnostic elements that were left in Beirut.

Remarkable preservation of bone collagen in the faunal material has allowed AMS dating on bone, and enables future analysis of ancient DNA from the site. Three samples of bone collagen from square D10, layer 4d in Nachcharini Cave were submitted to the Oxford Radiocarbon Accelerator Unit for AMS radiocarbon dating (samples OxA 27998, OxA 27999, and OxA 28000). These were corrected for fractionation by using measured δ13C values that ranged from -18.07 to -18.25 (see discussion of radiocarbon dates below). We calibrated and analyzed these dates using the 2013 atmospheric calibration curve in BCal [1516]. Using a variety of model assumptions, we ran each model at least three times with different random number seeds to check on consistency of results, but the results of only one of these runs appears here.

The faunal material from Nachcharini Cave (layer 4d) is generally well preserved in terms of surface details and overall condition but the specimens are highly fragmented, primarily as a result of intentional perimortem fracture, presumably for marrow extraction. Various post-depositional factors also contributed to fragmentation in some cases. Therefore, the vast majority of specimens cannot be attributed to a specific taxon. Despite these limitations, a significant number of specimens are identifiable to genus or species, providing valuable information about human activities at the site. Based on those ungulate faunal specimens with secure taxonomic attributions, this preliminary faunal analysis reports the Number of Identified Specimens (NISP) for the assemblage, and the Minimum Number of Individuals (MNI) for each taxonomic group. The MNI presented here is based on specimens of right mandibles, which were the most frequently occurring element type in the sample assemblage from Layer 4d. Identification is based on comparisons with the Howard Savage Archaeo-Osteology Collection, University of Toronto, and the Mammalogy Collection, Royal Ontario Museum, as well as established reference material [1725] Additionally, ages for the most frequent taxonomic groups (sheep/goat, gazelle) were assessed, again on the basis of right mandibles. Determinations of age were based on established criteria [19, 21, 2629].


Radiocarbon dates

Looking first at calibrations without assuming any model for their order or association (an “uninformative” model), OxA-28000 intercepts a plateau in the calibration curve, resulting in a multimodal calibration and relatively long time-span, while OxA-27999 intercepts a steep portion and OxA-27998 falls near the beginning of that portion. OxA-27998 does not overlap very much with the later two, even at 95% confidence, and may pertain to an earlier event (see Table 1 and Fig 5). In this “uninformative” run, the probable elapsed time between OxA-27998 and the next younger date is 17–121 years at 68% and -25 to 233 years at 95% credible interval. The probability that OxA-27998 is from an earlier event than OxA-27999 is 0.96.

Fig 5. Calibrated probability density functions for samples OxA-27998, OxA-27999, and OxA-28000 from Nachcharini Cave, layer 4d.

Calibrated with BCal [15].

Table 1. Radiocarbon determinations from square D10, layer 4d at Nachcharini.

With calibrated credible intervals (cal BC) for “uninformative” calibrations (top), with two of the determinations grouped (middle), and with those two pooled (bottom). Note: Calibrated dates are from one of three runs, each with a different random-number seed, to check on consistency. All gave closely similar results.

Grouping the later two determinations and comparing them with the first, with no assumptions about their relationship, widens the gap somewhat (elapsed time between OxA-27998 and OxA-27999 of 26–151 years at 68% credible interval), likely showing sensitivity to the model assumption. Assuming that OxA-27999 and OxA-28000 pertain to the same (pooled) event, and OxA-27998 a different one predictably results in an even longer estimate of elapsed time between the older event and the younger one, 48 to 172 years at 68%. However, a test of the hypothesis that the older date falls within the interval of the two younger dates yields a probability of 0.908, despite the fact that the model assumptions have exaggerated the difference between the older date and the other two.

Whether the dates and their associated faunal remains pertain to a single event around 9200 cal BC or to a series of events over a century or two, they generally fall well within the range of PPNA sites with which they share some other aspects of material culture. At Netiv Hagdud, for example, and using the same methods as for the Nachcharini dates, the beginning of occupation appears to be ca. 9480–9155 cal BC and its end around 9255–8800 cal BC (95% credible intervals from published data) [30]. A probability analysis indicates that the probability that each of the Nachcharini samples falls within this range is 0.306, 0.654, and 0.58, while the actual dates from Netiv Hagdud range from 9411–8940 (RT-762C, 9970 ± 150) to 9280–8928 cal BC (Pta-4556, 9660 ± 70, both at 95% CI), not very different from the earliest and latest dates from Nachcharini. The cave site of ‘Iraq ad-Dubb, another exception to the more familiar lowland sites, has dates from its PPNA levels of 9231–8802, 9741–9266 and 9813–9245 cal BC (95% CI, AA-38140, 9592 ± 64, AA-38145, 9941 ± 72, and OxA-2567, 9950 ± 100) [31], with greater spread but over much the same period as Nachcharini.


The collection in Toronto does not include the complete excavated lithic assemblage, consisting almost exclusively of formal retouched tools. We cannot be certain that all formal tools recovered are present, although the collection matches well with the counts of retouched tools found in the excavation records. Data in the excavation records make it clear that unretouched debitage and cores did not occur in the high densities that one would expect if a complete production sequence took place on site (Table 2). The low frequency of retouched flakes (including formal tool types such as endscrapers) and absence of bifacially worked pieces further emphasizes the specialized nature of the Nachcharini assemblage in the context of the PPNA [3234].

Table 2. Total count of lithics by excavation square from Layer 4d, Nachcharini Cave based on field notebooks.

The dominant tool types in the Nachcharini assemblage from layer 4d are Khiam points and Hagdud truncations (Table 3, Figs 6 and 7). Hagdud truncations are defined as having “two parallel retouched truncations, proximally and distally across the width of a blade or a bladelet fragment, while two lateral edges (remnants of the original blade/bladelet edges), were not retouched”[35]. Khiam points are described as points “with one pair (or more) of notches near the base or along the sides. The tip is retouched and the base is usually truncated”[36]. Four pieces were identified as retouched point tip fragments. At Nachcharini, there is variability in the pattern of retouch, with basal truncations rare (Fig 6A and 6B) and marginal retouch sometimes absent (Fig 6I–6L). Marginal retouch can be dorsal (Fig 6D), ventral (Fig 6A–6C, 6F and 6N), alternate (dorsal on one side and ventral on the other, Fig 6G and 6H), or bifacial (Fig 6E and 6M). One piece has a series of notches on each margin (Fig 6O).

Fig 6. El Khiam points and variants from Nachcharini, St. 4d.

Red dotted lines indicate linear retouch on an edge, blue dashed lines indicate notching. Number is the artifact designation for analysis. Side based on dorsal view. a: Distal blade with abrupt dorsal truncation at proximal end, ventral right and left marginal retouch, and ventral notching on left and right. b: Distal blade fragment with impact fracture at distal end, abrupt dorsal truncation at proximal end, ventral right and left marginal retouch above notches, dorsal notch on left margin and ventral notch on right margins. c: Distal blade fragment with impact fracture at distal end, ventral marginal retouch on right margin, ventral marginal retouch above notch on left margin, dorsal notch on left margin, ventral notch on right margin. d. Distal blade fragment with impact fracture at distal end, ventral marginal retouch on right margin above notch, dorsal notch on left margin, ventral notch on right margin. e. Blade with twisted profile, bifacial retouch on both margins, bifacial notch on left margin, dorsal notch on right margin, notches flush with base. f. Twisted blade with dorsal notch on right margin, ventral notch on left margin, ventral retouch above notch on right margin. g. Twisted bladelet with dorsal notch on left margin, ventral notch on right margin, dorsal left marginal retouch, and ventral right marginal retouch. Note offset of point from long axis. h. Blade with left dorsal margin retouch, right margin ventral retouch restricted to the upper part of the blade, dorsal notch on right side, ventral notch on left side. i. Twisted bladelet with ventral notch on left margin, notch on left margin appears to be the unretouched morphology of the bladelet. j. Distal bladelet fragment with bifacial notch on right margin, ventral notch on left margin. k Bladelet with dorsal notches on left and right margins. l. Distal blade fragment with dorsal notch on both sides. m. Irregular distal blade fragment with bifacial notch on left margin, dorsal notch on right margin, bifacial marginal retouch above notch on left margin, and ventral retouch above notch on right margin. n. Blade with dorsal notch on right distal end and ventral notch on left distal end, ventral retouch above notch on both margins. The tip of this piece is not a point and the orientation is unusual with the notches at the distal end of the bladelet. o. Blade fragment with a series of four dorsal notches on left margin and two bifacial notches between two ventral notches on right margin.

Fig 7. Hagdud truncations on blade fragments with concave base and straight distal end.

Inset shows edge damage on upper left margin of a.

Table 3. Typological breakdown of Layer 4d artifacts in the Toronto lithic sample from Nachcharini Cave.

The association of Khiam points and Hagdud truncations at Nachcharini supports the argument that these pieces were elements in composite hunting tools [3738]. Impact fractures are very rare on the Hadgud truncations but are clearly apparent on the distal end of many of the Khiam points. Examination of the points with distal fracture shows massive failure consistent with high-velocity impact and there is little doubt that these are armatures for light projectiles (Fig 8). The small size of the Khiam points is somewhat surprising, although small points can still have considerable lethal potential [3840]. Technologically, the Khiam points range from pieces made on flat blades (Fig 6A, 6B and 6L) to retouched, thin, twisted blades (Fig 6E–6H) and small flakes (Fig 6I–6K) that demonstrate a high degree of expediency in blank production for a formal tool type. Some of the blanks are remarkably irregular, such as the asymmetrical blade in Fig 6M and the piece shown in Fig 6N, where the notches are actually on the distal end of an irregular blade and the tip (proximal end) does not actually reach a point. There is a sense that, when the hunters at Nachcharini were retooling points, they frequently recycled broken pieces or made use of unstandardized debitage. However, this trait is not shared with the Hagdud truncations, which are consistently on blade fragments.

Fig 8. Scanning electron microscope images of damage to tips of El Khiam points from Nachcharini.

A. SPL 1 (Fig 6H). Left, overview showing ventral marginal retouch. Right, detail ventral face. Impact fracture, intermediate between bending and cone initiation, initiate from left ventral margin, feather termination at right ventral margin. B. SPL 10 (Fig 6A). Left, overview showing retouch on ventral face. Right, detail of ventral face. Impact fracture, unclear initiation from the tip off the ventral surface with intermediate step/hinge termination. C. SPL 9 (Fig 6C). Left, overview dorsal face. Right, overview ventral face. Center, detail ventral face. Break at distal end with a series of stepped spin-off fractures of dorsal face. D. SPL 7 (Fig 6B). Left, overview dorsal face. Right, overview ventral face. Break at distal end with a series of stepped spin off fractures off ventral face, burin fracture off right margin, and feathered spin off fracture off dorsal face. E. SPL 19 (Fig 6I). Left, overview of dorsal face showing marginal retouch. Center, detail of dorsal face. Right, detail of ventral face. Bending fracture on dorsal face initiated on left margin with feather termination on right margin. Spin off fracture (?) on tip on ventral face. Terminology based on Coppe and Rots 2017 [41].

Regionally, there is high degree of inter-site variability in the ratio of points to Hagdud truncations. Although sample size is an issue, Nachcharini and Netiv Hagdud nonetheless appear to be the only sites with a balance between the number of points and Hagdud truncations (see S1 File). While these tools might have been components of composite points [37], the inter-site variability suggests that this may not have been universal. At Dhra‘ and Wadi Feinan 16, for example, there is evidence for use of Khiam points as perforators, a function that is not apparent at Nachcharini, and accordingly these two sites have a high ratio of Khiam points to Hagdud truncations [42]. The most complete data for metrics of Khiam points comes from Netiv Hagdud [30], a site that is, as discussed above, contemporary with Nachcharini. At Netiv Hagdud, the Khiam points are generally longer than at Nachcharini, although there is overlap in size (Fig 9). However, the Netiv Hagdud assemblage also includes very small points and pieces that show the kind of expediency found at Nachcharini.

Fig 9. Comparison of size distribution of points from Nachcharini and Netiv Hagdud.


Table 4 shows the frequency of faunal remains of different taxa from Nachcharini layer 4d. Wild sheep (Ovis cf. orientalis) are the most represented taxon with at least seven individuals present, while Mountain gazelle (G. gazella) are represented by a minimum of five individuals. The undetermined Ovis/Capra category also has an MNI of five, and of these, four are identified as “probable Ovis,” and one as “probable Capra.” Capra (C. aegagrus, possibly C. ibex) itself has an MNI of two. So, sheep and goat together represent a minimum of 14 individual animals, while gazelle represent five, and deer (Cervus elaphus and possibly Dama mesopotamica,) just two. Again, MNI for Ovis, Capra, and Gazella here is calculated on the basis of right mandibles. Age information shows that the primary focus of hunting at PPNA Nachcharini was on adults of prime age, although several sub-adult animals are also present in the Layer 4d sample. Fig 10 shows examples of distal metapodia attributed to wild sheep (Ovis cf. orientalis) from Nachcharini Cave layer 4d.

Fig 10. Distal metapodia of specimens attributed to Ovis cf. orientalis from Nachcharini Cave, layer 4d.

Table 4. Representation of ungulate fauna from Nachcharini Cave layer 4d (PPNA).

Some differences in post-cranial element representation were apparent. The sheep/goat and gazelle bones show fairly complete representation of all skeletal regions (head, axial skeleton, limbs, feet), suggesting that primary butchery of these animals occurred within the cave. The deer bones show a different pattern, with a more uneven representation of skeletal regions and more highly fragmented specimens, perhaps suggesting offsite butchery or accumulation by scavengers. Again, these conclusions are tentative due to small sample size and various taphonomic factors, mentioned above. A comprehensive report on the taphonomy and fauna from all excavated units at the site is forthcoming (Rhodes, in prep.).

The fauna from Nachcharini layer 4d shows a distinct focus on ungulates, with little evidence of the “broad spectrum” of animal resources seen at many contemporaneous Levantine sites (e.g., Netiv Hagdud) [43]. Within the ungulate assemblage, the caprinae (sheep and goat) strongly predominate over other prey, such as gazelle and deer. Furthermore, among the caprinae, there is a much higher incidence of sheep than of goat, making this site unique for this region and time period. This affords the possibility, however remote, that the PPNA hunters who created the assemblage could have been engaged in some sort of incipient herd management [4445] of caprines prior to the unambiguous appearance of caprine domestication in the region during the subsequent PPNB [46]. Unfortunately, small sample sizes and taphonomic factors obscure the picture at Nachcharini too much for a thorough evaluation of this hypothesis, and future aDNA studies may shed more light on this question. At the least, the confirmed presence of wild sheep in the Anti-Lebanon Mountains, and in adjacent areas to the east [47], identifies a possible ancestral source for domesticated sheep in the mountains of the Central Levant, as well as further southeast near Jebel Druze [48].


The faunal and lithic data from Schroeder’s excavation at Nachcharini Cave present a vivid picture of a task-specific site focused on the hunting of ungulates, especially sheep. The radiocarbon dates firmly place this occupation within the PPNA, nearly synchronous with the occupation of Netiv Hagdud in the Jordan Valley. Lithic data, including the ratio of Khiam points to Hagdud truncations, also indicates a strong typological similarity between these two sites in these two tool types and probably their use in projectile armatures. However, from a broader perspective, Netiv Hagdud’s lithic assemblage exhibits a diversity not found at Nachcharini. The Khiam points from Nachcharini have a high degree of expediency that is consistent with retooling and there is no evidence for primary core reduction at the site. It appears that the PPNA hunters at Nachcharini were adept at using available materials to retool their hunting projectiles as needed. The dense accumulation of fauna in layer 4d at Nachcharini is consistent with intensive butchery, although it will require further taphonomic analysis to elucidate the nature of faunal exploitation. The three radiocarbon dates from the site are reasonably close but leave open the possibility that Stratum 4d is a palimpsest of multiple site visits over a period of up to two centuries.

Nachcharini provides clear evidence that PPNA mobility included task-specific groups that moved seasonally to exploit resources well outside the vicinity of large sites with architecture. The fauna from Nachcharini layer 4d shows a distinct focus on ungulates, with little evidence of exploitation of the “broad spectrum” of animal resources seen at many contemporaneous Levantine sites, and a strong predominance of caprinae over other ungulates. Furthermore, these unusually exhibit more sheep than goat, affording the possibility of incipient herd management at this early date [4445]. Nachcharini’s layer 4d fits well with Binford’s conception of a foraging camp, which presumably existed within a larger framework of logistical mobility [4950]. Copeland suggested such a possibility, but also pointed out that Nachcharini Cave may simply have served as a convenient waypoint for groups crossing the Anti-Lebanon Mountains between the Beqaa’ Valley in Lebanon and al-Majjar depression in Syria [12]. However, this latter suggestion does not account for the density of fauna, the restricted tool assemblage, or the typological similarity of Nachcharini to the Jordan Valley sites.

The reanalysis of material from Schroeder’s excavation at Nachcharini demonstrates not only the importance of this site but also some of the limitations of our understanding of PPNA society. The focus of research on large village sites, which, on the basis of evidence from Nachcharini, can be understood as base camps within a residential mobility strategy, probably provides only a partial perspective. Sites such as Iraq ad-Dubb, which is perched near the top of a cliff with limited space for occupation yet still has architectural remains dating to the PPNA [31], likely represents another type of settlement that was part of a PPNA mobility system [31, 51]. Research on the PPNA that has focused almost exclusively on the Jordan Valley leaves many gaps. For our understanding of Nachcharini, the absence of information for the PPNA in the Amuq and Beqaa‘ Valleys is particularly troubling [52, 53]. There is room to ask whether the PPNA included sites, similar to Late Natufian Hilazon Tachtit, that served as a focus for feasting events that brought different communities together. From this perspective, the monumental architecture at Gobekli Tepe [54, 55], toward the northern end of the PPNA world, might be understood within the context of a mobile hunter gatherer adaptation.


The PPNA was a dynamic period with diverse adaptations that appear to have included plant cultivation and perhaps incipient herd management. This period also saw radical developments in site structure and monumental architecture in some locations. PPNA groups voyaged widely, as indicated by expansion into Cyprus [5658] and recent discovery of a PPNA site in Saudi Arabia [59]. The evidence from Nachcharini exemplifies the use of diverse resource areas such as montane highlands, highlighting the diversity of subsistence activities in the PPNA. There is a risk of distorting our understanding of PPNA societies by trying to fit them into a binary opposition between hunter-gatherers and village farmers [1]. Nachcharini provides a vivid indication of the role of hunting during the PPNA, not only as a facet of activity on large sites with a diversified economy, but also in seasonal exploitation of particular resources far removed from those large sites.

Supporting information

S1 File. Nachcharini 4d lithics specimen numbers and additional data (NA lithics).


S2 File. Nachcharini 4d faunal specimen numbers list (Nach faunal specimen numbers).



Our research on Nachcharini Cave is wholly reliant on the high quality of fieldwork under Bruce Schroeder’s direction and is a testament to the enduring importance of his contributions to the prehistory of the Near East and the archaeology of Lebanon. In addition to access to collections from Nachcharini housed in the Department of Anthropology, University of Toronto, we were able to draw on the archival records of the excavation, which include the text of a lecture that Schroeder presented at the 1977 meeting of the Society for American Archaeology in New Orleans. Schroeder’s research was carried out with funding from the Canada Council (72–0102), under permit from the Directorate General of Antiquities of Lebanon. No permits were required for the described study, which complied with all relevant regulations. The crew of the 1972 excavation included Père Francis Hours, Gerry Kukan, Mary McDonald, Sahleh Anis Hujairi, and Hassan ‘Ali Hujairi. The crew of the 1974 season included Helen Schroeder, Alan Simmons, Helga Esche, Hans Knapp, and Bill Farrand. We would like to thank Dr. Max Friesen for access to the Howard G. Savage Faunal Archaeo-Osteology Collection (Anthropology Department, University of Toronto). SEM analysis was carried out at the Center for the Analysis of Archaeological Materials at the University of Pennsylvania Museum. We would like to thank Janet Monge for providing access to this facility.


  1. 1. Belfer-Cohen A.,Goring-Morris N. The Initial Neolithic in the Near East: Why it is so difficult to deal with the PPNA. Journal of the Israel Prehistoric Society. 2010; 40:1–8.
  2. 2. Horwitz LK, Lernau O. Temporal and spatial variation in Neolithic caprine exploitation strategies: a case study of fauna from the site of Yiftah'el (Israel). Paléorient. 2003 Jan 1; 29(1):19–58.
  3. 3. Munro ND, Bar-Oz G, Meier JS, Sapir-Hen L, Stiner MC, Yeshurun R. The Emergence of Animal Management in the Southern Levant. Scientific Reports. 2018; 8: 9279. pmid:29915348
  4. 4. Twiss KC. The Neolithic of the southern Levant. Evolutionary Anthropology: Issues, News, and Reviews. 2007 Jan;16(1):24–35.
  5. 5. Bar-Yosef O. The PPNA in the Levant–an overview. Paléorient. 1989 Jan 1; 15(1): 57–63.
  6. 6. Mithen SJ, Finlayson B, Smith S, Jenkins E, Najjar M, Maričević D. An 11 600 year-old communal structure from the Neolithic of southern Jordan. Antiquity. 2011 May; 85(328): 350–64.
  7. 7. Schmidt K. Göbekli Tepe, southeastern Turkey: A preliminary report on the 1995–1999 excavations. Paléorient. 2000 Jan 1; 26(1): 45–54.
  8. 8. Colledge S., Conolly J., eds. The origins and spread of domestic plants in southwest Asia and Europe. Walnut Creek, CA: Left Coast Press; 2007.
  9. 9. Weiss E, Kislev ME, Hartmann A. Autonomous cultivation before domestication. Science. 2006 Jun 16; 312(5780): 1608–10. pmid:16778044
  10. 10. Wright KI. Early Holocene ground stone assemblages in the Levant. Levant. 1993 Jan 1; 25(1): 93–111.
  11. 11. Munro ND, and Grosman L. The forager-farmer transition in the southern Levant (ca. 20,000–8,500 cal. BP): From prehistory to the present. In: Yasur-Landau A, Cline E, Rowan Y, editors. The Social Archaeology of the Levant. Cambridge: Cambridge University Press; 2018. p. 47–66.
  12. 12. Copeland L. Natufian sites in Lebanon. In: Bar-Yosef O,Valla F, editors. The Natufian Culture in the Levant. Ann Arbor: International Monographs in Prehistory; 1991. p. 27–42.
  13. 13. Garrard A, Pirie A, Schroeder B, Wasse A. Survey of Nachcharini Cave and prehistoric settlement in the northern Anti-Lebanon Highlands. Bulletin d'Archeologie et d'Architecture Libanaises. 2003 Jan 1; 7: 15–48.
  14. 14. Conard NJ, Bretzke K, Deckers K, Masri M, Napierala HA, Riehl S, et al. Natufian lifeways in the eastern foothills of the Anti-Lebanon Mountains. In: Bar-Yosef O, Valla FR, editors. Natufian Foragers in the Levant—Terminal Pleistocene Social Changes in Western Asia. Ann Arbor: International Monographs in Prehistory; 2013. p. 1–16.
  15. 15. Buck CE, Christen JA, James GN. BCal: An on-line Bayesian radiocarbon calibration tool. Internet Archaeology 1999 September; 7:
  16. 16. Reimer PJ, Bard E, Bayliss A, Beck JW, Blackwell PG, Bronk Ramsey C, et al. IntCal13 and Marine13 radiocarbon age calibration curves 0 − 50,000 years cal BP. Radiocarbon 2013; 55(4): 1869–1887.
  17. 17. Boessneck J. Osteological differences between sheep (Ovis aries Linné) and goat (Capra hircus Linné). In: Brothwell D, Higgs E, editors. Science in Archaeology. 2nd ed. London: Thames and Hudson; 1969. p. 331–58.
  18. 18. Boessneck J, Müller H-H, Teichert M. Osteologische Unterscheidungsmerkmale zwischen Schaf (Ovis aries LINNE) und Ziege (Capra hircus LINNE). Kuhn-Archiv. 1964;78(1/2):1–129.
  19. 19. Davis S. A note on the dental and skeletal ontegeny of Gazella. Israel Journal of Zoology. 1980;29(1–3):129–34.
  20. 20. Halstead P, Isaakidou V, Collins P. Sorting the sheep from the goats: Morphological distinctions between the mandible sand mandibular teeth of adult Ovis and Capra. Journal of Archaeological Science. 2002 May; 29(5): 545–553.
  21. 21. Payne S. Morphological Distinctions between the Mandibular Teeth of Young Sheep, Ovis, and Goats, Capra. Journal of Archaeological Science. 1985;12:139–47.
  22. 22. Prummel W, Frisch H-J. A guide for the distinction of species, sex and body side in bones of sheep and goat. Journal of Archaeological Science. 1986;13(6):567–577.
  23. 23. Schmid E. Atlas of Animal Bones. Amsterdam: Elsevier; 1972.
  24. 24. Zeder M, Lapham HA. Assessing the reliability of criteria used to identify postcranial bones in sheep, Ovis, and goats, Capra. Journal of Archaeological Science. 2010 Nov; 37(11): 2887–2905.
  25. 25. Gillis R, Chaix L, Vigne J-D. An assessment of morphological criteria for discriminating sheep and goat mandibles on a large prehistoric archaeological assemblage (Kerma, Sudan). Journal of Archaeological Science. 2011 Sep;38(9):2324–39.
  26. 26. Grant A. The use of tooth wear as a guide to the age of domestic ungulates. In: Wilson B, Grigson C, Payne S, editors. Ageing and Sexing Animal Bones from Archaeological Sites. Oxford, UK: British Archaeological Reports; 1982. p. 91–108. (BAR British Series).
  27. 27. Greenfield H, Arnold E. Absolute age and tooth eruption and wear sequences in sheep and goat: Determining age-at-death in zooarchaeology using a modern control sample. Journal of Archaeological Science 2008 April; 35(4): 836–849.
  28. 28. Payne S. Reference codes for wear states in the mandibular cheek teeth of sheep and goats. Journal of Archaeological Science. 1987;14(6):609–614.
  29. 29. Munro N, Bar-Oz G, Stutz AJ. Aging mountain gazelle (Gazella gazelle): Refining methods of tooth eruption and wear and bone fusion. Journal of Archaeological Science. 2009 Mar; 36(3): 752–763.
  30. 30. Bar-Yosef O, Gopher A. An Early Neolithic Village in the Jordan Valley. Part 1: The Archaeology of Netiv Hagdud. Cambridge: Peabody Museum Press; 1997.
  31. 31. Kuijt I. Pre-Pottery Neolithic A and Late Natufian at ‘Iraq ed-Dubb, Jordan. Journal of Field Archaeology January 2004; 29(3–4): 291–308.
  32. 32. Kaufman D, Nadel D. More insights into PPNA intra-and inter-site lithic variability. In: Astruc L,Binder D, Briois F, editors. Systemes techniques et Communautés du Néolithique Précéramique au Proche-Orient (Actes du 5e Colloque International). Antibes: Éditions APDCA; 2007. p.103–116
  33. 33. Ghattas S. Lithic variability among the PPNA assemblages of the Dead Sea Basin. In: Astruc L,Binder D, Briois F, editors. Systemes techniques et Communautés du Néolithique Précéramique au Proche-Orient (Actes du 5e Colloque International). Antibes: Éditions APDCA; 2007. p. 87–102.
  34. 34. Yerkes RW, Barkai R, Gopher A, Bar Yosef O. Microwear analysis of early Neolithic (PPNA) axes and bifacial tools from Netiv Hagdud in the Jordan Valley, Israel. Journal of Archaeological Science. 2003 Aug 1; 30(8): 1051–66.
  35. 35. Bar-Yosef O, Gopher A, Nadel D. The" Hagdud Truncation"—a new tool type from the Sultanian industry at Netiv Hagdud, the Jordan Valley. Mitekufat Haeven: Journal of the Israel Prehistoric Society 1987; 20:151–7.
  36. 36. Nadel D, Bar-Yosef O, Gopher A. Early Neolithic arrowhead types in the southern Levant: A typological suggestion. Paléorient. 1991; 17(1): 109–19.
  37. 37. Hutchings K. The Nachcharini composite projectile: Design theory and the study of hunting systems technology at Mugharat en-Nachcharini in the Post-Natufian Levant. MA thesis, University of Toronto. 1991.
  38. 38. Hutchings K. Measuring use-related fracture velocity in lithic armatures to identify spears. Journal of Archaeological Science. 2011; 38(7): 1737–1746.
  39. 39. Bosc-Zanardo B, Bon F, Fauvelle-Aymar FX. Bushmen arrows and their recent history: crossed outlooks of historical, ethnological and archaeological sources. P@ lethnologie. 2008; 1: 341–57.
  40. 40. Chaboo CS, Hitchcock RK, Bradfield J, Wadley L. Beetle and Plant Arrow Poisons of the San People of Southern Africa. In: Wexler P, editor. Toxicology in Antiquity. New York: Academic Press; 2018. p. 11–71.
  41. 41. Coppe J, Rots V. Focus on the target. The importance of a transparent fracture terminology for understanding projectile points and projecting modes. Journal of Archaeological Science: Reports. 2017 Apr 1;12:109–23.
  42. 42. Smith S. The form and function of the el Khiam point at ‘Dhra and WF16: Issues for interpreting chipped stone assemblage variability. In: Astruc L,Binder D, Briois F, editors. Systemes techniques et Communautés du Néolithique Précéramique au Proche-Orient (Actes du 5e Colloque International). Antibes: Éditions APDCA; 2007. p. 75–86.
  43. 43. Tchernov E. An Early Neolithic Village in the Jordan Valley, Part II: The Fauna of Netiv Hagdud. Cambridge, MA: Peabody Museum, Harvard University; 1994.
  44. 44. Hecker HM. Domestication Revisited: Its Implications for Faunal Analysis. Journal of Field Archaeology. 1982;9(2):217.
  45. 45. Ducos P. Proto-élevage et élevage au Levant Sud au VIIe millénaire B.C.: les données de la Damascène. Paléorient. 1993;19(1):153–73.
  46. 46. Helmer D, Gourichon L. Premières données sur les modalités de subsistence Tell Aswad (Syria, PPNB moyen et récent. Néolithique céramique ancient)—Fouilles 2001–2005. Archaeozoology of the Near East VIII, TMO 49, Maison de l’Orient et de la Méditerranée. 2008: 119–151.
  47. 47. Napierala H. The Paleolithic Background of Early Food Producing Societies in the Fertile Crescent—Faunal Analysis [PhD]. University of Tübingen; 2012.
  48. 48. Yeomans L, Martin L, Richter T. Expansion of the known distribution of Asiatic mouflon (Ovis orientalis) in the Late Pleistocene of the Southern Levant. Royal Society Open Science. 2017 Aug;4(8):170409. pmid:28878989
  49. 49. Binford LR. Willow Smoke and Dogs’ Tails: Hunter-Gatherer Settlement Systems and Archaeological Site Formation. American Antiquity. 1980 Jan;45(01):4–20.
  50. 50. Binford LR. The archaeology of place. Journal of Anthropological Archaeology. 1982;1(1):5–31.
  51. 51. Edwards YH, Martin L. Fauna from the Natufian and PPNA cave site of Iraq ed-Dubb in Highland Jordan. Paléorient. 2007;143–174.
  52. 52. Copeland L, Wescombe PJ. Inventory of stone-age sites in Lebanon, Part II. Mélanges de l’Université Saint-Joseph 1966; 42: 2–174.
  53. 53. Haïdar-Boustani M, Ibàñez JJ, Al-Maqdissi M, Armendáriz A, González Urquijo J, Teira L. New data on the Epipaleolithic and Neolithic of the Homs Gap: Three campaigns of archaeological survey (2004–2006). Neo-Lithics. 2007;1/07: 3–9.
  54. 54. Schimdt K. Göbekli Tepe: A Stone Age Sanctuary in South-eastern Anatolia, trans. M Wittwar. ex oriente, Berlin.
  55. 55. Banning EB. So fair a house. Göbekli Tepe and the identification of temples in the Pre-Pottery Neolithic of the Near East. Current Anthropology. 2011 Oct; 52(5): 619–660.
  56. 56. Vigne JD, Briois F, Zazzo A, Willcox G, Cucchi T, Thiébault S, et al. First wave of cultivators spread to Cyprus at least 10,600 y ago. Proceedings of the National Academy of Sciences. 2012 May 29;109(22):8445–9.
  57. 57. Manning SW, McCartney C, Kromer B, Stewart ST. The earlier Neolithic in Cyprus: recognition and dating of a Pre-Pottery Neolithic A occupation. Antiquity. 2010 Sep;84(325):693–706.
  58. 58. Manning SW. Temporal placement and context of Cyro-PPNA activity on Cyprus. Eurasian Prehistory. 2014;11(1–2):9–28.
  59. 59. Crassard R, Petraglia MD, Drake NA, Breeze P, Gratuze B, Alsharekh A, et al. Middle Palaeolithic and Neolithic occupations around Mundafan palaeolake, Saudi Arabia: implications for climate change and human dispersals. PLoS One. 2013 Jul 24;8(7):e69665. pmid:23894519