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Since cultivation was late and marginal and there were no domestic animals (except the dog) in the Pampas and Patagonia, indigenous people in both regions depended almost exclusively on wild animals, both terrestrial and aquatic, and undomesticated plants. At the same time, stones were also crucial for making the tools to kill and butcher the prey and to process the plant products. As we will show, bone technology was secondary in most of the Pampas and significant only among coastal, both maritime and riverine, and Paraná Delta people. Therefore, wild natural resources were the key elements for human subsistence in the Pampas and Patagonian and, in some way, shaped their adaptive patterns.
The chapters presented before showed diverse historical trajectories, different adaptive patterns, and continuous human occupation of the Pampas and Patagonia since the end of the Pleistocene. Both regions were probably among the last continental lands, except Antarctica, colonized by Homo sapiens after their dispersal from Africa. The first outcome of this review of the archaeology of the Pampas and Patagonia is that it does not support a pre-15,000 cal BP human occupation of the Southern Cone. Putting this in the global discussion means that the Pampas-Patagonia peopling holds up a pre-13,000 cal BP (the so-called pre-Clovis Model) but post–Late Glacial Maximum human arrival at the continent, which is in agreement with current archaeological, ancient DNA, and paleoclimatic models (Llamas et al. 2016; Pitblado 2011; Posth et al. 2018; Prates et al. 2020; Sutter 2021; Waters and Stafford 2013). Moreover, most of the paleoclimatic evidence supports the hypothesis that the earliest human arrivals at the Pampas and Patagonia took place under cold climatic conditions in semiarid to arid environments (Borrero and Martin 2018; Prado et al. 2021) during the cooling period known as the Antarctic Cold Reversal (14,700–13,000 cal BP).
In this chapter, the historical background of the archaeology in the Pampas and Patagonia is discussed and summarized. It encompasses a period of about 100 years, between the 1870s when the first archaeological investigations took place in the Pampas and Patagonia (Ameghino 1880–1881; Holmberg 1884; Moreno 1874; Moseley 1892; Zeballos and Pico 1878) and the late 1970s when there was a theoretical and methodological shift in the archaeology of both regions, which gave rise to modern research. The current regional models in the Pampas and Patagonia are a product of this last period’s research, first with a processual orientation and then adding other theoretical approaches (evolutionary, processual-plus/neo-processualism, post-processualism, etc.). However, some of the data and ideas generated in this first 100 years of investigation are still present in contemporary debates, as shown in the following chapters of this book.
The Middle Holocene was a time of change in both the Pampas and Patagonia. In some way, these changes were the prelude to the demographic expansion, regional diversification, economic intensification, and social complexity that characterized the following period, the Late Holocene. During the Middle Holocene times, archaeological evidence in the Pampas was scarce until a decade ago or so, but recent research increased information significantly (e.g., Ávila 2011; Ávila et al. 2011; Bonomo et al. 2013; Donadei Corada 2020; Gutiérrez et al. 2010; Mazzanti et al. 2015; Messineo et al. 2019a, b, c; Politis et al. 2012; Scheifler 2019). This period is characterized by global warming, known as the Hypsitermal or Holocene Thermal Maximum (Renssen et al. 2012). As a result, in the Pampas, the sea level raised above the current level at around 7000 BP. However, there is no agreement about the magnitude of this raising (between 2.2 to 6 masl depending on the author) and the chronology of the maximum ingression (see revisions in Aguirre and Whatley 1995; Melo et al. 2003). For Isla and Espinosa (1995), it began at the onset of the Holocene, reaching its maximum height (around 2 masl) around 6500–6000 BP. This resulted in the coast having sometimes a transgressive position, such as in the east of the Salado Depression and the Paraná Delta (Cavallotto et al. 2004, 2005; Iriondo and Kröhling 2008), while in other cases, it was very close to the present according to the variations of the littoral morphology.
During the Late Holocene time, regional differentiation, which became visible during the Middle Holocene, produced a wide variety of historical trajectories and adaptive patterns in the Pampas and Patagonia. It is clear that around 4000 BP human populations were selectively using all the diverse, available habitats. In this period, the archaeological visibility increased significantly, a fact that also suggests a rise in the population density of both regions (see discussion in Chapter 7).
This book summarizes the current archaeological and ethnographic knowledge regarding the indigenous people who inhabited the South American Southern Cone since the end of the Pleistocene (Figure 1.1). This land, roughly between 32° and 56° S latitude, comprises the Pampas and Patagonia. Since the beginning of the European conquest in the sixteenth century, both regions have attracted the attention of conquerors and explorers even though there were no precious rocks or metals within them, nor were they inhabited by indigenous populations who could be easily exploited or subjugated to slavery or encomiendas. This is not to say that there were no fabulations – notably, the legend of the Ciudad de Los Césares, or Trapalanda, where supposedly fabulous riches could be found. This legend originated around the sixteenth century when stories after the inland trip by Francisco César, a captain from the Sebastian Gaboto expedition, began to circulate. Also, the castaways from the shipwreck of one of Francisco Camargo’s expeditions fueled these legends. The sad reality was that no evidence existed about the fate of those castaways.
As we show in Chapter 2, there has been a long tradition of the archaeological research in both the Pampas and Patagonia since the end of the nineteenth century. From the very beginning of the investigations, the Late Pleistocene human occupation was at the top of the research agenda in both regions. Giant ground sloth skins from Cueva del Milodón and human skulls supposedly found in very ancient (Tertiary) layers in the Pampas seashore ignited the imagination of scientists of those times, and fieldwork looking for spectacular findings as well as reckless interpretations abounded. Since then, the first human occupation has been the main focus of the archaeological investigation in both regions. This chapter summarizes and discusses the results of this almost continuous, intense, and fertile archaeological research.
Covering vast swathes of Europe, the Bell Beaker Phenomenon has enjoyed a privileged status in the history of archaeology and is often referred to as a key period in the transition from the Neolithic to the Bronze Age partly due to the emergence of social élites. After a brief presentation of the historiography of the Bell Beaker phenomenon, this Element offers a synthetic account of the available evidence structured on a regional basis. Following the renewed interest in human mobility generated by stable isotopes and ancient DNA studies, the central thesis developed here is that the Bell Beaker Phenomenon can adequately be described as a metapopulation, a concept borrowed from population ecology. This title is also available as Open Access on Cambridge Core.
The inability to differentiate skeletal remains belonging to the ferret from those of its wild ancestor, the European polecat, presents a particular challenge for zooarchaeologists which currently hinders a better understanding of ferret domestication history. Using a geometric morphometric approach on the mandible, this study provides a new method to distinguish the two forms. Despite a small sample size and some overlap in the dataset, this method allowed the identification of a (post)medieval specimen from Mechelen (Belgium) as a wild polecat. Results demonstrate that ferrets can largely be distinguished from polecats based on mandibular morphology.
The AMS Golden Valley radiocarbon analysis laboratory is equipped with two accelerator mass spectrometers: AMS facility from Budker Institute of Nuclear Physics (BINP AMS) and MIni CArbon DAting System (MICADAS-28) from Ionplus AG and two graphitization systems: Automated Graphitization Equipment (AGE-3) from Ionplus AG and Absorption-catalytic setup developed in Boreskov Institute of Catalysis (ACS BIC). The laboratory provides routine 14C analyses of various samples: collagen, cellulose, humic acids, carbonates from sediments, etc. The main focus of the laboratory is to determine the age of archaeological artifacts by radiocarbon dating. This work presents a comprehensive description of the BINP AMS facility, with its operation compared with that of MICADAS in the same laboratory. In 2022, the AMS Golden Valley laboratory participated for the first time in the Glasgow International Radiocarbon Inter-comparison (GIRI). The samples were graphitized on the AGE-3 and subsequently measured in both AMS facilities. A comparison of the results of the two series of experiments, namely AGE-3 + MICADAS-28 and AGE-3 + BINP AMS, is given.
At the Intertropical Convergence Zone (ITCZ), the northern and southern Tradewinds converge, and this region is characterized by low atmospheric pressure and high precipitation. The climate in the Timor Sea is characterized by seasonal precipitation changes driven by meridional migrations of the ITCZ and the monsoonal front. The ITCZ shifts in response to changes in the thermal balance between the northern and southern hemispheres. Thus, reconstruction of paleo-precipitation in the Timor Sea is expected to reveal past changes in both regional and global climate, the latter through inference of the ITCZ position. To reconstruct paleo-precipitation in the Timor Sea, we performed extensive radiocarbon analysis on both planktonic foraminifera and total organic carbon (TOC), which is derived from terrestrial and marine sources. Increased precipitation enhances the fraction of relatively old, terrestrial carbon to the core site, which in turn increases the difference between the ages of TOC and planktonic foraminifera. Variations in radiocarbon ages reveal that during northern hemisphere cooling intervals such as Heinrich Stadial 1 and the Younger Dryas, the ITCZ was in a southern position, thus increasing precipitation in the Timor Sea. However, the Timor Sea was dryer during the Bølling–Allerød warming as the ITCZ shifted northward.
Since the first developments of anthropogenic lime materials radiocarbon (14C) dating in the 1960s, numerous studies have been undertaken and developed to investigate the topic further. Historic mortars are complex composite and open system materials that can incorporate a large range of components. Due to the complexity of the historic lime mortars composition, they are not part of a routine protocol in most radiocarbon laboratories and reliable dating is not always achieved. A thorough characterization needs to be performed and different preparation methods can be considered as a function of their compositions. A vast range of terms are employed to qualify the lime mortars components and alterations that can possibly have an influence on the dating result. Here, a detailed description of these components and the various terms used is listed. To illustrate this, images obtained by thin-section petrography and cathodoluminescence are presented in addition to radiocarbon results using stepwise acid hydrolysis on Belgian mortars having different provenance, state, age and composition. Depending on the type of aggregate used, the type of binder and its conservation state, the eventual presence of weathering carbonates and the assumed speed of the carbonation process, the reliability of radiocarbon measurements using the stepwise acid hydrolysis technique is discussed and confronted with presumed historical constraints.
In this article, the authors present an analysis of radiocarbon dates from a stratified deposit at the Greek Geometric period settlement of Zagora on the island of Andros, which are among the few absolute dates measured from the period in Greece. The dates assigned to Greek Geometric ceramics are based on historical and literary evidence and are found to contradict absolute dates from the central Mediterranean which suggest that the traditional dates are too young. The results indicate the final period at Zagora, the Late Geometric, should be seen as starting at least a century earlier than the traditional date of 760 BC.
Explanations for the emergence and abandonment of the Chalcolithic Trypillia mega-sites have long been debated. Here, the authors use Gini coefficients based on the sizes of approximately 7000 houses at 38 Trypillia sites to assess inequality between households as a factor in the rise and/or demise of these settlements. The results indicate temporarily reduced social inequality at mega-sites. It was only after several generations that increased social differentiation re-emerged and this may explain the subsequent abandonment of the mega-sites. The results indicate that increases in social complexity need not be associated with greater social stratification and that large aggregations of population can, for a time at least, find mechanisms to reduce inequality.