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3 - Agricultural Revolutions

Published online by Cambridge University Press:  05 August 2014

John L. Brooke
Affiliation:
Ohio State University
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Summary

The origins of agriculture lay in the sudden end of the Pleistocene, as the cold, dry glacial world, after some climate oscillations, gave way to the warm, wet Holocene that has sheltered humanity ever since. After spreading thinly across African and Eurasian grasslands during the last stages of the Pleistocene, humanity suddenly settled down in villages and began to produce – rather than simply to forage for – the sustenance of survival. This was what we have called since the days of the great archaeologist V. Gordon Childe the agricultural revolution or the Neolithic revolution. This was the much debated “moment” of domestication, as plants, animals, and people themselves were transformed by a synergy of human action and natural contingency to forge a radically new configuration of human behavior and natural ecology. The result would be an accelerating growth of human numbers, and the emergence of an entirely new set of tensions between humanity and nature.

We call this a “revolution” in the human circumstance, but such terms depend on your perspective. In geological and evolutionary time, the emergence of settled life and agricultural production was certainly a revolutionary transformation. If we imagine the 5 million years of human evolutionary time as a twenty-four-hour period, the entire 300,000 years of modern humanity comprises about an hour and a half, the 135,000 years since modern humans may have left Africa comprise about a half hour, and the 12,000 years since the end of the Pleistocene and its aftershocks comprise slightly more than four minutes. Against a similar twenty-four-hour clock of the geological time of evolving earth systems since 4.6 billion years ago, these epochs are even more minute: about six seconds since the emergence of modern humanity, one second since the first successful departure from Africa, and a few nanoseconds since the end of the ice ages.

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Publisher: Cambridge University Press
Print publication year: 2014

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References

Zeder, Melinda A., in “The Neolithic Macro-(R)evolution: Macroevolutionary Theory and the Study of Cultural Change,” JArchRes 17 (2009), 1–63, esp. 45–8Google Scholar
Barker, Graeme, The Agricultural Revolution in Prehistory: Why did Foragers Become Farmers? (Oxford, 2006)
Worster, Donald, “Transformations of the Earth: Toward an Agroecological Perspective in History,” JAmH 76 (1990), 1087–107Google Scholar
Harlan, Jack R., “Agricultural Origins: Centers and Noncenters,” Science 174 (1971), 468–74Google Scholar
Vermeij, Geerat J., Nature: An Economic History (Princeton, NJ, 2004)
Scurlock, J. M. O. and Olson, R. J., “Terrestrial New Primary Productivity – A Brief History and a New Worldwide Database,” Environmental Reviews 10 (2002), 91–109Google Scholar
Binford, Lewis L., Constructing Frames of Reference: An Analytical Method for Archaeological Theory Building Using Hunter-Gatherer and Environmental Data Sets (Berkeley, CA, 2001)
Simmons, Ian G., Changing the Face of the Earth: Culture, Environment, History (Oxford, 1989), esp. 19–23, 60–6, 128–45, 215–39
Smil, Vaclav, Energy in World History (Boulder, CO, 1994)
Rojstaczer, Stuat et al., “Human Appropriation of Photosynthetic Products,” Science 294 (2001), 2549–52Google Scholar
Haberl, Helmut, “The Global Socioeconomic Energetic Metabolism as a Sustainability Problem,” Energy 31 (2006), 87–99Google Scholar
White, Lesley A., “Energy and the Evolution of Culture,” AmAnth 45 (1953), 335–56Google Scholar
Finlayson, Clive, Neanderthals and Modern Humans: An Ecological and Evolutionary Perspective (New York, 2004)
Tudge, Colin, Neanderthals, Bandits, and Farmers: How Agriculture Really Began (New Haven, CT, 1998)
Keeley, Lawrence H., “Protoagricultural Practices among Hunter-Gathers: A Cross-Cultural Survey,” in Price, T. Douglass and Gebauer, Anne Birgitte, eds., Last Hunters, First Farmers: New Perspectives on the Prehistoric Transition to Agriculture (Santa Fe, NM, 1995), 243–72
Erickson, David L. et al., “An Asian Origin for a 10,000 Year-Old Domesticated Plant in the Americas,” PNAS 102 (2005), 18315–20Google Scholar
Decker-Walters, Deena et al., “Diversity in Landraces and Cultivars of Bottle Gourd (Lagenaria siceraria; Cururbitaceae) as Assessed by Random Amplified Polymorphic DNA,” Genetic Resources and Crop Development 48 (2001), 369–80Google Scholar
Mercader, Julio, “Mozambican Grass Seed Consumption during the Middle Stone Age,” Science 326 (2009), 1680–3Google Scholar
Kvavadze, Eliso et al., “30,000-Year-Old Wild Flax Fibers,” Science 325 (2009), 1359.Google Scholar
Allen, Jim and Kershaw, Peter, “Greater Australia,” in Strauss, Lawrence Guy et al., eds., Humans at the End of the Ice Age: The Archaeology of the Pleistocene-Holocene Transition (New York, 1996), 183–5
Miller, Gifford H. et al., “Ecosystem Collapse in Pleistocene Australia and a Human Role in Megafaunal Extinction,” Science 309 (2005), 287–90Google Scholar
Gerhart, Laci M. and Ward, Joy K., “Plant Responses to Low [CO2] of the Past,” New Phytologist 188 (2010), 674–95Google Scholar
Sage, Rowan F., “Was Low Atmospheric CO2 during the Pleistocene a Limiting Factor for the Origins of Agriculture?Global Change Biology 1 (1995), 93–106Google Scholar
Diamond, Jared, Guns, Germs, and Steel: The Fates of Human Societies (New York, 1997), 114–75
Zohary, Daniel and Hopf, Maria, Domestication of Plants in the Old World: The Origin and Spread of Plants in West Asia, Europe, and the Nile Valley, third edition (New York, 2000)
Smith, Bruce D., The Emergence of Agriculture (New York, 1995)
Harris, David R., ed., The Origins and Spread of Agriculture and Pastoralism in Eurasia (Washington, DC, 1996)
Harris, David R. and Hillman, Gordon, eds., Foraging and Farming: The Evolution of Plant Exploitation (London, 1989)
Harris, David R., “Alternative Pathways toward Agriculture,” in Reed, Charles A., ed., Origins of Agriculture (The Hague, 1977), 179–243
McKee, Jeffrey, Sparing Nature: The Conflict between Human Population Growth and Earth’s Biodiversity (New Brunswick, NJ, 2005)
Grayson, Donald K., “The Archaeological Record of Human Impacts on Animal Populations, JWP 15 (2001), 1–68Google Scholar
Goren-Inbar, Naama et al., “Evidence of Fire Control at Gesher Benot Ya’aqov, Israel,” Science 304 (2004), 725–7Google Scholar
Cook, Earl, “The Flow of Energy in an Industrial Society,” SA 224 (1971), 135–44Google Scholar
Haberl, Helmut, “The Energetic Metabolism of Societies, Part II: Empirical Examples,” Journal of Industrial Ecology 5 (2002), 71–88Google Scholar
Bennett, John W., Ecological Transition: Cultural Anthropology and Human Adaptation (New York, 1976, repr. 2005), 40–3
Bettinger, Robert L., “Agriculture, Archaeology, and Human Behavioral Ecology,” in Kennett, Douglas J. and Winterhalder, Bruce, eds., Behavioral Ecology and the Transition to Agriculture (Berkeley, CA, 2006), 289–322
Winterhalder, Bruce and Smith, Eric Alden, “Analyzing Adaptive Strategies: Human Behavioral Ecology at Twenty-Five,” Evolutionary Anthropology (2000), 51–72Google Scholar
Shennan, Stephen, Genes, Memes, and Human History: Darwinian Archaeology and Cultural Evolution (London, 2002)
Winterhalder, Bruce and Goland, Carol, “On Population, Foraging Efficiency, and Plant Domestication,” CA 34 (1993), 710–15Google Scholar
Hawkes, K. and O’Connell, J., “On Optimal Foraging Models and Subsistence Transition,” CA 33 (1992), 63–6Google Scholar
Layton, Robert et al., “The Transition between Hunting and Gathering and the Specialized Husbandry of Resources,” CA 32 (1991), 255–74Google Scholar
Smith, Bruce, “Low-Level Food Production,” JAnthRes 9 (2001), 1–43Google Scholar
Rindos, David, “Symbiosis, Instability, and the Origins and Spread of Agriculture: A New Model,” CA 21 (1980), 751–72Google Scholar
Diamond, Jared, “Evolution, Consequences, and Future of Plant and Animal Domestication,” Nature 418 (2002), 700–7Google Scholar
Mannion, A. M., “Domestication and the Origins of Agriculture: An Appraisal,” Progress in Physical Geography 23 (1999), 37–56Google Scholar
Richerson, Peter J. et al., “Was Agriculture Impossible during the Pleistocene but Mandatory during the Holocene,” AmAntiq 66 (2001), 387–411Google Scholar
Brooks, E. J. et al., “Rapid Variation in Atmospheric Methane Concentration during the Past 110,000 Years,” Science 273 (1996), 1087–91Google Scholar
Petit, J. R. et al., “Climate and Atmospheric History of the Past 420,000 Years from the Vostok Ice Core, Antarctica,” Nature, 399, 429–36
Flückiger, Jacqueline et al., “High-Resolution Holocene N2O Ice Core Record and Its Relationship with CH4 and CO2,” GBC 16 (March 2002)Google Scholar
Keppler, Frank et al., “Methane Emissions from Terrestrial Plants under Aerobic Conditions,” Nature 439 (2006), 187–92Google Scholar
Ruddiman, William F., Earth’s Climate: Past and Future (New York, 2001), 193–209
Prentice, I. Colin et al., “Mid-Holocene and Glacial-Maximum Vegetation Geography of the Northern Continents and Africa,” Journal of Biogeography 27 (2000), 507–19Google Scholar
Weaver, Andrew J., “Meltwater Pulse 1A from Antarctica as a Trigger of the Bølling-Allerød Warm Interval,” Science 299 (2003), 1709–13Google Scholar
Burroughs, William J., Climate Change in Prehistory: The End of the Reign of Chaos (New York, 2005), 43–5
Ruddiman, William F., “Orbital Insolation, Ice Volume, and Greenhouse Gases,” QSR 22 (2003), 1597–629Google Scholar
Rohling, E. J. et al., “Holocene Atmosphere-Ocean Interactions: Records from Greenland and the Aegean Sea,” ClimDyn 18 (2002), 587–93Google Scholar
Lüthi, D. et al., “High-Resolution Carbon Dioxide Concentration Record 650,000–800,000 Years before Present,” Nature 453 (2008), 379–82Google Scholar
Loulergue, L. et al., “Orbital and Millennial-Scale Features of Atmospheric CH4 over the Past 800,000 Years,” Nature 453 (2008), 383–6Google Scholar
Marcott, Shaun A. et al., “A Reconstruction of Regional and Global Temperature for the Past 11,300 Years,” Science 339 (2013), 1198–201Google Scholar
Mayewski, P. A. et al., “Major Features and Forcing of High-Latitude Northern Hemisphere Atmospheric Circulation Using a 110,000-Year-Long Glaciochemical Series. JGR 102 (1997), 26345–66Google Scholar
Zeilinski, Gregory A. et al., “A 110,000 Yr Record of Explosive Volcanism from the GISP2 (Greenland) Ice Core,” QuatRes 45 (1996), 109–18Google Scholar
–, “Volcanic Aerosol Records and Tephrochronology of the Summit, Greenland, Ice Cores,” JGR 102 (1997), 26, 525–40
Hammer, C. U. et al., “50,000 Years of Recorded Global Volcanism,” ClimCh 35 (1997), 1–35Google Scholar
deMenocal, Peter et al., “Coherent High- and Low-Latitude Climate Variability during the Holocene Warm Period,” Science 288 (2000), 2198–202Google Scholar
Miller, G. H. et al., “Temperature and Precipitation History of the Arctic, QSR 29 (2010), 1679–715Google Scholar
Stott, Lowell, “Decline of Surface Temperature and Salinity in the Western Tropical Pacific Ocean in the Holocene Epoch,” Nature 431 (2004), 56–9Google Scholar
Leuschner, Dirk C. and Sirocko, Frank, “The Low-Latitude Monsoon Climate during Dansgaard-Oeschger Cycles and Heinrich Events,” QSR 19 (2000), 243–54Google Scholar
Morrill, Carrie et al., “A Synthesis of Abrupt Changes in the Asian Summer Monsoon since the Last Deglaciation,” The Holocene 13 (2003), 465–76Google Scholar
Peterson, Larry C. and Haug, Gerald H., “Variability in the Mean Latitude on the Atlantic Intertropical Convergence Zone as Recorded by Riverine Input of Sediments to the Cariaco Basin (Venezuela),” PPP 234 (2006), 97–113Google Scholar
Hughen, Conrad A. et al., “Abrupt Tropical Vegetation Response to Rapid Climate Changes,” Science 304 (2004), 1955–9Google Scholar
Pielou, E. C., After the Ice: The Return of Life to Glaciated North America (Chicago, IL, 1991)
Dykoski, Carolyn A. et al., “A High-Resolution, Absolute-Dated Holocene and Deglacial Asia Monsoon Record from Dongge Cave, China,” EPSL 233 (2005), 71–86Google Scholar
Fleitmann, Dominik et al., “Holocene ITCZ and Indian Monsoon Dynamics Recorded in Stalagmites from Oman and Yemen (Socotra),” QSR 26 (2007), 170–88Google Scholar
Broecker, Wallace S. et al., “Routing of Melt Water from the Laurentine Ice Sheet during the Younger Dryas Episode,” Nature 341 (1989), 318–21Google Scholar
Murton, Julian B. et al., “Identification of Younger Dryas Outburst Flood Path from Lake Agassiz to the Arctic Ocean,” Nature 464 (2010), 740–3Google Scholar
Firestone, R. B. et al., “Evidence for an Extraterrestrial Impact 12,900 Years Ago That Contributed to the Megafaunal Extinctions and the Younger Dryas Cooling,” PNAS 104 (2007), 16016–21Google Scholar
Kennett, Douglas J. et al., “Shock-Synthesized Hexagonal Diamonds in Younger Dryas Boundary Sediments,” PNAS 106 (2009), 12623–8Google Scholar
Broecker, Wallace S. et al., “Putting the Younger Dryas Event into Context,” QSR 29 (2010), 1078–81Google Scholar
Walker, Mike et al., “Formal Definition and Dating of the GSSP (Global Stratotype Section and Point) for the Base of the Holocene Using the Greenland NGRIP Ice Core, and Selected Auxiliary Records,” JQS 24 (2009), 3–17Google Scholar
Linden, Eugene, The Winds of Change: Climate, Weather, and the Destruction of Civilizations (New York, 2006)
Flannery, Tim, The Weather-Makers: How Man Is Changing the Climate and What It Means for Life on Earth (New York, 2005)
McCormick, Michael, “History’s Changing Climate: Climate Science, Genomics, and the Emerging Consilient Approach to Interdisciplinary History,” JInterdH 42 (2011), 251–73Google Scholar
Thompson, Lonnie G. et al., “Kilimanjaro Ice Core Records: Evidence of Holocene Climate Change in Tropical Africa,” Science 298 (2002), 589–93Google Scholar
–, “A 25,000-Year Tropical Climate History from Bolivian Ice Cores,” Science 282 (1998), 1858–64
Bond, Gerard et al., “A Pervasive Millennial-Scale Cycle in North Atlantic Holocene and Glacial Climates,” Science 278 (1997) 1257–66CrossRefGoogle Scholar
Moy, Christopher M., “Variability of El Niño/Southern Oscillation Activity at Millennial Timescales during the Holocene Epoch,” Nature 420 (2002), 162–5Google Scholar
Bar-Matthews, Miryam et al., “Sea-Land Oxygen Isotopic Relationships from Planktonic Foraminifera and Speleothems in the Eastern Mediterranean Region and Their Implications for Paleo-Rainfall during Interglacial Times,” Geochimica et Cosmochimica Acta 67 (2003), 3181–99Google Scholar
Vonmoos, Maura et al., “Large Variations in Holocene Solar Activity: Constraints from 10Be in the Greenland Ice Core Project Ice Core,” JGR 111 (2006), A10105Google Scholar
Muscheler, Raimund et al., “Geomagnetic Field Intensity during the Last 60,000 Years based on 10Be and 36Cl from the Summit Ice Cores and 14C,” QSR 24 (2005), 1849–60Google Scholar
Hughen, K. et al., “14C Activity and Global Carbon Cycle Changes over the Past 50,000 Years,” Science 303 (2004), 202–7Google Scholar
Baillie, M. G. L., A Slice through Time: Dendrochronology and Precision Dating (London, 1995)
Hong, Y. T., “Inverse Phase Oscillations between the East Asian and Indian Ocean Summer Monsoons during the Last 12,000 Years and Paleo-El-Niño,” EPSL 231 (2005), 337–46Google Scholar
Mauquoy, Dmitri et al., “Changes in Solar Activity and Holocene Climatic Shifts Derived from 14C Wiggle-Match Dated Peat Bogs,” The Holocene 14 (2004), 45–52Google Scholar
Zeder, Melinda A. et al., eds., Documenting Domestication: New Genetic and Archaeological Paradigms (Berkeley, CA, 2006)
Meunier, Jean D. and Colin, Fabrice, eds., Phytoliths: Applications in Earth Sciences and Human History (Lisse, 2001)
Jones, Martin and Brown, Terry, “Agricultural Origins: The Evidence of Modern and Ancient DNA,” Holocene 10 (2000), 769–76Google Scholar
Richards, M. P., “Stable Isotope Evidence of Diet at Neolithic Çatalhöyük, Turkey,” JArchS 30 (2003), 67–76Google Scholar
Steckel, Richard H. and Rose, Jerome C., eds., The Backbone of History: Health and Nutrition in the Western Hemisphere (New York, 2002)
Larsen, Clark Spencer, Bioarchaeology: Interpreting Behavior from the Human Skeleton (New York, 1997)
Cohen, Mark Nathan and Armelagos, George J., eds., Paleopathology at the Origins of Agriculture (New York, 1984)
Mellars, Paul, “A New Radiocarbon Revolution and the Dispersal of Modern Humans in Eurasia,” Nature 439 (2006), 931–5Google Scholar
Cohen, Mark Nathan, in The Food Crisis in Prehistory: Overpopulation and the Origins of Agriculture (New Haven, CT, 1977), 54
Yong, He, “The Terrestrial NPP Simulations in China since Last Glacial Maximum,” Chinese Science Bulletin 50 (2005), 2074–9Google Scholar
MacPhee, Ross D. E., ed., Extinctions in Near Time: Causes, Contexts, and Consequences (New York, 1999)
Stuart, J. et al., “Pleistocene to Holocene Extinction Dynamics in Giant Deer and Mammoth,” Nature 431 (2004), 684–9Google Scholar
Haynes, Gary, “The Catastrophic Extinction of North America Mammoths and Mastodonts,” WdArch 33 (2002), 391–416Google Scholar
Fiedel, Stuart J., “Man’s Best Friend – Mammoth’s Worst Enemy? A Speculative Essay on the Role of Dogs in Paleoindian Colonization and Megafaunal Extinction,” WdArch 37 (2005), 11–25Google Scholar
Zimmer, Carl, “Carriers of Extinction,” Discover 16/6 (July 1995), 28–9Google Scholar
Meltzer, David J. and Holliday, Vance T., “Would North American Paleoindians have Noticed Younger Dryas Climate Changes?JWP 23 (2010), 1–41Google Scholar
Carneiro, Robert, “A Theory of the Origin of the State,” Science 169 (1970), 733–8Google Scholar
Richards, M. P. et al., “Isotope Evidence for the Intensive Use of Marine Foods by Late Upper Paleolithic Humans,” JHumEv 49 (2005), 390–4 (and literature there cited)Google Scholar
Binford, Lewis R., “Post-Pleistocene Adaptations,” in Binford, S. R. and Binford, L. R., eds., New Perspectives in Archaeology (Chicago, IL, 1968), 313–41
Flannery, Kent V., “Origins and Ecological Effects of Early Domestication in Iran and the Near East,” in Ucko, Peter J. and Dimbley, G. W., eds., The Domestication and Exploitation of Plants and Animals (Chicago, IL, 1969), 73–100
Hayden, Brian, “Research and Development in the Stone Age: Technological Transition among Hunter-Gatherers,” CA 22 (1981), 519–45Google Scholar
Stiner, Mary C., “Thirty Years on the “Broad Spectrum Revolution” and Paleodemography,” PNAS 98 (2001), 6993–6Google Scholar
Lu, Houyuan et al., “Rice Domestication and Climatic Change: Phytolith Evidence from East China,” Boreas 31 (2002), 378–85Google Scholar
Zhao, Zhijun and Piperno, Dolores R., “Late Pleistocene/Holocene Environments in the Middle Yangtze Valley, China and Rice (Oryza sativa L.) Domestication: The Phytolith Evidence,” Geoarchaeology 15 (2000), 203–22Google Scholar
Higham, Charles and Lu, Tracy L.-D., “The Origins and Dispersal of Rice Cultivation,” Antiquity 72 (1998), 867–70Google Scholar
Zhijun, Zhao, “The Middle Yangtze Region in China is One Place Where Rice Was Domesticated: Phytolith Evidence from the Diaotonghuan Cave, Northern Jiangxi,” Antiquity 72 (1998), 885–97Google Scholar
Shiner, Joel J., “The Cataract Tradition,” and Fred Wendorf, “Summary of Nubian Prehistory,” in Wendorf, Fred, ed., The Prehistory of Nubia, vol. 2 (Dallas, TX, 1968), 564–629, 1050–1, 1056
Barich, Barbara E., People, Water, and Grain: The Beginnings of Domestication in the Sahara and the Nile Valley (Rome, 1998), 33–7
Mithen, Steven, After the Ice: A Global Human History, 20,000–5000 B.C. (Cambridge, MA, 2004), 451–2
von Holdt, Bridgett M. et al., Genome-Wide SNP and Haplotype Analyses Reveal a Rich History Underlying Dog Domestication,” Nature 464 (2010), 898–902Google Scholar
Boyko, Adam R. et al., “Complex Population Structure in African Village Dogs and Its Implications for Inferring Dog Domestication History,” PNAS 106 (2009), 13903–8Google Scholar
Vilas, Carles et al., “Multiple and Ancient Origins of the Domestic Dog,” Science 276 (1997), 1687–9Google Scholar
Jones, Martin, “Issues of Scale and Symbiosis: Unpicking the ‘Agricultural Package,’” in Bellwood, Peter and Renfrew, Colin, eds., Examining the Farming/Language Dispersal Hypothesis (Cambridge, 2002), 371–2
Honeycutt, Rodney L., “Unravelling the Mysteries of Dog Evolution,” BMC Biology 8 (2010)Google Scholar
Bar-Osef, Ofer, “The Natufian Culture in the Levant, Threshold to the Origins of Agriculture,” Evolutionary Anthropology 6 (1998), 161–7Google Scholar
Verhoeven, Marc, “Beyond Boundaries: Nature, Culture and a Holistic Approach to Domestication in the Levant,” JWP 18 (2004), 231–40Google Scholar
Byrd, Brian F., “Reassessing the Emergence of Village Life in the Near East,” JArchRes 13 (2005), 231–90Google Scholar
Boyd, Brian, “On ‘Sedentism’ in the Later Epipaleolithic (Natufian) Levant,” WdArch 38 (2006), 164–78Google Scholar
Weiss, Ehud et al., “The Broad Spectrum Revisited: Evidence from Plant Remains,” PNAS 101 (2004), 9551–5Google Scholar
Piperno, Dolores et al., “Processing Wild Cereals in the Upper Paleolithic Revealed by Starch Grain Analysis,” Nature 430 (2004), 670–3Google Scholar
Bar-Matthews, Miryam and Ayalon, Avner, “Climatic Conditions in the Eastern Mediterranean during the Last Glacial (60–10 ky bp) and Their Relations to the Upper Paleolithic in the Levant: Oxygen and Carbon Isotope Systematics of Cave Deposits,” in Goring-Morris, A. Nigel and Belfer-Cohen, Anna, eds., More than Meets the Eye: Studies on Upper Paleolithic Diversity in the Near East (Oxford, 2003), 13–18
Fix, Alan G., “Rapid Deployment of the Five Founding Amerind mtDNA Haplogroups via Coastal and Riverine Colonization,” AJPA 128 (2004), 430–6Google Scholar
Bradley, Bruce and Stanford, Dennis, “The North Atlantic Ice-Edge Corridor: Possible Paleolithic Route to the New World,” WdArch 36 (2004), 459–78Google Scholar
Piperno, Dolores R. and Pearsall, Deborah M., The Origins of Agriculture in the Lowland Neotropics (New York, 1998), 12
Munro, Natalie D., “Zooarchaeological Measures of Hunting Pressure and Occupation Intensity in the Natufian,” CA 45 (2004), S5–S33Google Scholar
Stiner, Mary C. et al., “Paleolithic Population Growth Pulses Evidenced by Small Animal Exploitation,” Science 283 (1999), 190–4Google Scholar
Davis, Simon, “Why Domesticate Animals? Some Zoo-Archaeological Evidence from the Levant,” JArchS 32 (2005), 1408–16Google Scholar
Henry, Donald O., “Models of Agricultural Origins and Proxy Measures of Prehistoric Demographics,” in Cappers, R. T. J. and Bottema, S., eds., The Dawn of Farming in the Near East (Berlin, 2002), 15–25
Bocquentin, Fanny and Bar-Yosef, Ofer, “Early Natufian Remains: Evidence for Physical Conflict from Mt. Carmel, Israel,” JHumEv 47 (2004), 19–23Google Scholar
Bachechi, L., “An Arrow-Caused Lesion in a Late Upper Paleolithic Human Pelvis,” CA 38 (1997), 135–40Google Scholar
Eshed, Vered, “Has the Transition to Agriculture Reshaped the Demographic Structure of Prehistoric Populations? New Evidence from the Levant,” AJPA 124 (2004), 315–29, at 326Google Scholar
Ferrill, Arthur, The Origins of War: From the Stone Age to Alexander the Great, rev. ed. (Boulder, CO, 1997), 23–4
Byrd, Brian F. and Monahan, Christopher M., “Death, Mortuary Ritual, and Naturian Social Structure,” JAnthArch 14 (1995), 251–87Google Scholar
Moore, A. M. T. and Hillman, G. C., “The Pleistocene to Holocene Transition and Human Economy in Southwest Asia: The Impact of the Younger Dryas,” AmAnth 57 (1992), 482–94Google Scholar
Sherratt, Andrew, “Climatic Cycles and Behavioural Revolutions: The Emergence of Modern Humans and the Beginning of Farming,” Antiquity 71 (1997), 271–87Google Scholar
Layton, Robert, “The Human Evolutionary Time-Scale and the Transition between Hunting and Gathering, and Farming,” in Bintliff, John, ed., Structure and Contingency: Evolutionary Processes in Life and Human Society (London, 1999), 102–17
Munro, Natalie, “Small Game, the Younger Dryas, and the Transition to Agriculture in the Southern Levant,” Mitteilungen der Gesellschaft für Urgeschichte 12 (2003), 47–71Google Scholar
Tannio, Ken-Ichi and Wilcox, George, “How Fast Was Wild Wheat Domesticated?Science 311 (2006), 1886Google Scholar
Fuller, Dorian Q., “Contrasting Patterns in Crop Domestication and Domestication Rates: Recent Archaeolbotanical Insights from the Old World,” Annals of Botany 100 (2007), 903–24Google Scholar
Meadows, John, “The Younger Dryas Episode and the Radiocarbon Chronologies of the Lake Huleh and Ghab Valley Pollen Diagrams, Israel and Syria,” The Holocene 15 (2005), 631–6Google Scholar
Willcox, George et al., “Late Pleistocene and Early Holocene Climate and the Beginnings of Cultivation in Northern Syria,” Holocene 19 (2009), 151–8Google Scholar
Goring-Morris, Nigel and Belfer-Cohen, Anna, “The Articulation of Cultural Processes and Late Quaternary Environmental Changes in the Cisjordan,” Paléorient 32/2 (1998), pp. 82–4Google Scholar
Rosen, Arlene M. and Rivera-Collazo, Isabel, “Climate Change, Adaptive Cycles, and the Persistence of Foraging Economies during the Late Pleistocene/Holocene Transition in the Levant,” PNAS 109 (2012), 3640–5Google Scholar
Weninger, Bernhard et al., “The Impact of Rapid Climate Change on Prehistoric Societies during the Holocene in the Eastern Mediterranean,” Documenta Praehistorica 36 (2009), 7–59, at 14–30Google Scholar
Sherratt, Andrew, “Diverse Origins: Regional Contributions to the Genesis of Farming,” in Colledge, S. and Conolly, J., eds., The Origins and Spread of Domestic Plants in Southwest Asia and Europe (Walnut Creek, CA, 2007), 1–29
Kuijt, Ian and Goring-Morris, Nigel, “Foraging, Farming, and Social Complexity in the Pre-Pottery Neolithic in the Southern Levant: A Review and Synthesis,” JWH 16 (2002), 367–87Google Scholar
Flannery, Kent V., “The Origins of the Village Revisited: From Nuclear to Extended Households,” AmAntiq 67 (2002), 417–33Google Scholar
Goring-Morris, A. Nigel and Belfer-Cohen, Anna, “A Roof over One’s Head: Developments in Near Eastern Residential Architecture across the Epipaleolithic-Neolithic Divide,” in Bocquet-Appel, Jean-Pierre and Bar-Yosef, Ofer, eds., The Neolithic Demographic Transition and Its Consequences (New York, 2008), 239–86
Schmidt, K., “Göbekli Tepe, Southeastern Turkey: A Preliminary Report on the 1995–1999 Excavations,” Paléorient 26 (2001), 45–54Google Scholar
Watkins, Trevor, “Supra-Regional Networks in the Neolithic of Southwest Asia,” JWP 21 (2008), 139–71Google Scholar
Cauvin, Jacques, in The Birth of the Gods and the Origins of Agriculture, Trevor Watkins, trans. (New York, 2000)
Simmons, Alan H., The Neolithic Revolution in the Near East (Tucson, AZ, 2007), 46–174
Kuijt, Ian, “People and Space in Early Agricultural Villages: Exploring Daily Lives, Community Size, and Architecture in the Late Pre-Pottery Neolithic,” JAnthArch19 (2000), 75–102Google Scholar
Haug, Gerald et al., “Southward Migration of the Intertropical Convergence Zone through the Holocene,” Science 293 (2001), 1304–8Google Scholar
Davis, Basil A. S. and Brewer, Simon, “Orbital Forcing and the Role of the Latitudinal Insolation/Temperature Gradient,” ClimDyn 32 (2009), 143–65Google Scholar
Lu, Tracy L.-D., “Some Botanical Characteristics of Green Foxtail (Setara Viridis) and Harvesting Experiments on the Grass,” Antiquity 72 (1998), 902–7Google Scholar
Liu, Li, The Chinese Neolithic: Trajectories Toward Early States (New York, 2004), 24–5
Crawford, Gary W. and Shen, Chen, “The Origins of Rice Agriculture: Recent Progress in East Asia,” Antiquity 72 (1998), 858–66Google Scholar
Juzhong, Zhang and Xiangkun, Wang, “Notes on the Recent Discovery of Ancient Cultivated Rice at Jiahu, Henan Province: A New Theory Concerning the Origin of Oryza Japonica in China,” Antiquity 72 (1998), 897–901Google Scholar
Hillman, Gordon C. and Davies, M. S., “Measured Domestication Rates in Wild Wheats and Barley under Primitive Cultivation at Abu Hureyra on the Euphrates,” JWP 4 (1990), 157–222Google Scholar
Piperno, Dolores and Stothert, Karen, “Phytolith Evidence for Early Holocene Cucurbita Domestication in Southwest Ecuador,” Science 299 (2003), 1054–7Google Scholar
Piperno, Dolores et al., “Starch Grains Reveal Early Root Crop Horticulture in the Panamanian Tropical Forest,” Nature 407 (2000), 894–7Google Scholar
Piperno, Dolores et al., “Starch Grain and Phytolith Evidence for Early Ninth Millennium B. P. Maize from the Central Balsas River Valley, Mexico,” PNAS 106 (2009), 5019–24Google Scholar
Ranere, Anthony J. et al., “The Cultural and Chronological Context of Early Holocene Maize and Squash Domestication in the Central Balsas River Valley, Mexico,” PNAS 106 (2009), 5014–18Google Scholar
Bellwood, Peter, First Farmers: The Origins of Agricultural Societies (Oxford, 2005), 158
Alley, Richard B. et al., “Holocene Climate Instability: A Prominent, Widespread Event 8200 yr Ago,” Geology 25 (1997), 483–6Google Scholar
Ellison, Christopher R. W., Surface and Deep Water Interactions during the Cold Climate Event 8200 Years Ago,” Science 312 (2006), 1929–32Google Scholar
Kleiven, Helga Flesche et al., “Reduced North Atlantic Deep Water Coevel with the Glacial Lake Agassiz Freshwater Outburst,” Science 319 (2008), 60–4Google Scholar
Steinhilber, F. et al., “Interplanetary Magnetic Field during the Past 9300 Years Inferred from Cosmogenic Radionuclides,” JGR 115 (2010), A01104Google Scholar
Marino, Gianluca et al., “Early and Middle Holocene in the Aegean Sea: Interplay between High and Low Latitude Climate Variability,” QSR 28 (2009), 3246–62Google Scholar
Rohling, Eelco J. and Pälike, Eike, “Centennial-Scale Climate Cooling with a Sudden Cold Event around 8,200 Years Ago,” Nature 434 (2005), 975–9Google Scholar
Meeker, Loren D. and Mayewski, Paul A., “A 1400-Year High-Resolution Record of Atmospheric Circulation over the North Atlantic and Asia,” Holocene 12 (2002), 257–66Google Scholar
Mayewski, Paul A. et al., “Holocene Climate Variability,” QuatRes 62 (2004), 243–55Google Scholar
Thompson, Lonnie G. et al., “Late Glacial State and Holocene Tropical Ice Core Records from Huascarán, Peru,” Science 269 (1995), 46–50Google Scholar
Ponton, Camilo, “Holocene Aridification of India,” GRL 39 (2012), L03704Google Scholar
Rashid, Harunur et al., “Late Glacial to Holocene Indian Summer Monsoon Variability Based upon Sediment Records Taken from the Bay of Bengal,” Terrestrial, Atmospheric, and Oceanic Sciences 22 (2011), 215–28Google Scholar
Wang, Yongjin et al., “The Holocene Asian Monsoon: Links to Solar Changes and North Atlantic Climate,” Science 308 (2005), 854–7Google Scholar
Yu, Yongtao et al., “Millennial-Scale Holocene Climate Variability in the NW China Drylands and Links to the Tropical Pacific and the North Atlantic,” PPP 233 (2006), 149–62Google Scholar
Marshall, Fiona and Hildebrand, Elizabeth, “Cattle before Crops: The Beginnings of Food Production in Africa,” JWP 16 (2002), 99–143Google Scholar
Hanotte, Olivier, “African Pastoralism: Genetic Imprints of Origins and Migrations,” Science 296 (2002), 336–99Google Scholar
Gifford-Gonzales, Diane and Hanott, Olivier, “Domesticating Animals in Africa: Implications and Archaeological Findings,” JWP 24 (2011), 1–23Google Scholar
Nicoll, Kathleen, “Recent Environmental Change and Prehistoric Human Activity in Egypt and Northern Sudan,” QSR 23 (2004), 561–80Google Scholar
Munoz, Manuel E. et al., “Synchronous Environmental and Cultural Change in the Prehistory of the Northeastern United States,” PNAS 107 (2010), 22008–13Google Scholar
Iriarte, José et al., “Evidence for Cultivar Adoption and Emerging Complexity during the Mid-Holocene in the La Plata Basin,” Nature 432 (2004), 614–17Google Scholar
Fuller, Dorian Q., “Agricultural Origins and Frontiers in South Asia: A Working Synthesis,” JWP 20 (2006), 1–86, at 61–2Google Scholar
Turney, Chris S. M. and Hobbs, Douglas, “ENSO Influences on Holocene Aboriginal Populations in Queensland, Australia,” JArchS 33 (2006), 1744–8Google Scholar
Brooks, Nick, “Cultural Responses to Aridity in the Middle Holocene and Increased Social Complexity,” QuatInt 151 (2006), 29–49Google Scholar
Cavalli-Sforza, Luigi Luca, Genes, Peoples, and Languages, Mark Seielstad, trans. (New York, 2000)
Cavalli-Sforza, Luigi Luca and Cavalli-Sforza, Francesco, The Great Human Diasporas, Sarah Thorne, trans. (Menlo Park, NJ, 1995)
Ammerman, Albert J. and Cavalli-Sforza, Luigi Luca, The Neolithic Transition and the Genetics of Populations in Europe (Princeton, NJ, 1984)
Diamond, Jared and Bellwood, Peter, “Farmers and Their Languages: The First Expansions,” Science 300 (2003), 597–603Google Scholar
Diamond, Jared M., “The Language Steamrollers,” Nature 389 (1997), 544–6Google Scholar
Renfrew, Colin, “World Linguistic Diversity,” SA (January 1994), 116–23Google Scholar
Cavalli-Sforza, Luigi Luca et al., “Demic Expansions and Human Evolution,” Science 259 (1993), 639–46Google Scholar
Perlès, Catherine, The Early Neolithic in Greece (New York, 2001), 62
van Andel, Tjeerd H. and Runnels, Curtis N., “The Earliest Farmers in Europe,” Antiquity 69 (1995), 481–500Google Scholar
Forenbaher, Staso and Miracle, Preston T., “The Spread of Farming in the Eastern Adriatic,” Antiquity 79 (2005), 514–28Google Scholar
Pelternberg, Edgar and Wasse, Alexander, eds., Neolithic Revolutions: New Perspectives on Southwest Asia in Light of Recent Discoveries on Cyprus (Oxford, 2004)
Bar-Matthews, Miryam et al., “The Eastern Mediterranean Paleoclimate as a Reflection of the Regional Events: Soreq Cave, Israel,” EPSL 166 (1999), 85–95Google Scholar
Issar, Arie S. and Zohar, Mattanyah, Climate Change: Environment and Civilization in the Middle East (Berlin, 2004), 61–2, 65–6
Ryan, William B. F. et al., “An Abrupt Drowning of the Black Sea Shelf,” Marine Geology 31 (1997)Google Scholar
Ryan, William B. F. et al., “Catastrophic Flooding of the Black Sea,” Annual Review of Earth and Planetary Science 31 (2003), 525–54Google Scholar
Yanko-Hombach, Valentina et al., “Controversy over the Great Flood Hypotheses in the Black Sea in Light of Geological, Paleontological, and Archaeological Evidence,” QuatInt 167–8 (2007), 91–113Google Scholar
Giosan, Liviu et al., “Was the Black Sea Catastrophically Flooded in the Early Holocene?QSR 28 (2009), 1–6Google Scholar
Lericolais, G. et al., “High Frequency Sea Level Fluctuations in the Black Sea since the LGM,” GPC 66 (2009), 65–75Google Scholar
Turley, Chris S. M. and Brown, Heidi, “Catastrophic Early Holocene Sea Level Rise, Human Migration and the Neolithic Transition in Europe,” QSR 26 (2009), 2036–41Google Scholar
Soulet, G. et al., “A Revised Calendar for the Last Reconnection of the Black Sea to the Global Ocean,” QSR 30 (2011), 1019–26Google Scholar
Rollefson, Gary O., “The Neolithic Devolution: Ecological Impact and Cultural Compensation at ‘Ain Ghazal, Jordan,” in Joe E. Seger, ed., Retrieving the Past: Essays on Archaeological Research and Methodology in Honor of Gus W. Van Beck (Mississippi State, 1996), 219–30
Rollefson, Gary O. et al., “Neolithic Cultures at ‘Ain Ghazal, Jordan,” JFdArch 19 (1992), 433–70Google Scholar
Zilhão, João, “Radiocarbon Evidence for Maritime Pioneer Colonization at the Origins of Farming in West Mediterranean Europe,” PNAS 98 (2001), 14180–5Google Scholar
Gronenborn, Detlef, “A Variation on a Basic Theme: The Transition to Farming in Southern Central Europe,” JWP 13 (2003), 123–210Google Scholar
Colledge, Sue et al., Archaeobotanical Evidence for the Spread of Farming in the Eastern Mediterranean,” CA 45 (2004), S34–S58Google Scholar
Pinhasi, Ron and Pluciennik, Mark, “A Regional Approach to the Spread of Farming in Europe,” CA 45 (2004), S59–S82Google Scholar
Weninger, Bernhard et al., “Climate Forcing due to the 8200 cal yr BP Event Observed at Early Neolithic Sites in the Eastern Mediterranean,” QuatRes 66 (2006), 401–20Google Scholar
Maisels, Charles Keith, Early Civilizations of the Old World: The Formative Histories of Egypt, The Levant, Mesopotamia, India, and China (New York, 1999), 124–5, 132–5, 147, 150–2
Li, Xiaoqiang, “Early Cultivated Wheat and Broadening of Agriculture in Neolithic China,” Holocene 17 (2007), 555–60Google Scholar
Wells, Spencer, The Journey of Man: A Genetic Odyssey (Princeton, NJ, 2002), 146–80
Richards, Martin, “The Neolithic Invasion of Europe,” Annual Reviews in Anthropology 32 (2003), 135–62Google Scholar
Bentley, R. Alexander, “The Neolithic Transition in Europe: Comparing Broad Scale Genetic and Local Scale Isotopic Evidence,” Antiquity 77 (2003), 63–6Google Scholar
Semino, Ornella et al., “Origin, Diffusion, and Differentiation of Y-Chromosome Haplogroups E and J: Inferences on the Neolithization of Europe and Later Migratory Events in the Mediterranean Area,” AJHG 74 (2004), 1023–34Google Scholar
Haak, Wolfgang, “Ancient DNA from First European Farmers in 7500-Year-Old Neolithic Sites,” Science 310 (2005), 1016–18Google Scholar
Bramanti, B. et al., “Genetic Discontinuity between Local and Hunter-Gatherers and Central Europe’s First Farmers,” Science 326 (2009), 137–40Google Scholar
Kivisild, T. et al., “The Genetic Heritage of the Earliest Settlers Persists Both in Indian Tribal and Caste Populations,” AJHG 72 (2003), 313–32Google Scholar
Sengupta, Sanghamitra et al., “Polarity and Temporality of High-Resolution Y-Chromosome Distributions in India Identify Both Indigenous and Exogenous Expansions and Reveal Minor Genetic Influence of Central Asian Pastoralists,” AJHG 78 (2006), 202–21Google Scholar
Rowley-Conwy, Peter, “How the West Was Lost: A Reconsideration of Agricultural Origins in Britain, Ireland, and Southern Scandinavia,” CA 45 (2004), S83–S113Google Scholar
Bowers, Bruce, “Cultivating Revolutions,” Science News 167 (Feb. 5, 2005), 88–92Google Scholar
Anderson, Atholl et al., “Prehistoric Maritime Migration in the Pacific Islands: An Hypothesis of ENSO Forcing,” The Holocene 16 (2006), 1–6Google Scholar
Webb, James L. A., Jr., “Malaria and the Peopling of Early Tropical Africa,” JWH 16 (2005), 269–91, esp. 285–90Google Scholar
Collard, Mark et al., “Radiocarbon Evidence Indicates that Migrants Introduced Farming into Britain,” JArchS 37 (2010), 866–70Google Scholar
Biraben, Jean-Nöel, “Essai sur l-Évolution du Nombre des Hommes,” Population 34 (1979), 13–24Google Scholar
McEvedy, Colin and Jones, Richard, Atlas of World Population History (New York, 1978)
Harris, Marvin, Cannibals and Kings: The Origins of Cultures (New York, 1977)

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  • Agricultural Revolutions
  • John L. Brooke, Ohio State University
  • Book: Climate Change and the Course of Global History
  • Online publication: 05 August 2014
  • Chapter DOI: https://doi.org/10.1017/CBO9781139050814.006
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  • Agricultural Revolutions
  • John L. Brooke, Ohio State University
  • Book: Climate Change and the Course of Global History
  • Online publication: 05 August 2014
  • Chapter DOI: https://doi.org/10.1017/CBO9781139050814.006
Available formats
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  • Agricultural Revolutions
  • John L. Brooke, Ohio State University
  • Book: Climate Change and the Course of Global History
  • Online publication: 05 August 2014
  • Chapter DOI: https://doi.org/10.1017/CBO9781139050814.006
Available formats
×