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7 - Optimum and Crisis in Early Civilizations, 3000–500 BC

Published online by Cambridge University Press:  05 August 2014

John L. Brooke
Affiliation:
Ohio State University
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Summary

The two and a half millennia from 3000 BC to 500 BC, one half of recorded human history, can be described in terms of a long global climatic optimum – and another global climatic crisis driven by a Hallstatt solar minimum. During this enormous span of time, and despite their apparent diversity, world cultures marched in generally common patterns, striking in their evolutionary similarities. Many of these similarities were shaped by a common global experience of long stretches of relatively stable climate optimum – and then roughly simultaneous abrupt climate change. If New World societies did not develop agriculture – and epidemic diseases – at quite the same pace as did those in the Old World, the pulse of the global Bronze Age optimum and then the Preclassical Crisis moved global societies along surprisingly similar tracks.

The Old World Bronze Age: Expansions and Crises, 3000–1000 BC

The Bronze Age encompassed at least the first two millennia of urban civilization in the Old World. During this long sweep of time, Old World societies in the Middle East, the eastern Mediterranean, India, and China developed amazingly enduring patterns of power and economy. With the apparent exception of Harappan India, these were societies of strict hierarchy, based on concepts of sacred kingship. Here the priests did not speak in the temple with the gods in the name and interest of the people; the king became a god and was the focal point of all things. Rather than evolving and changing, the Bronze Age systems simply intensified, becoming ever more elaborated and involuted. Their fate was in great measure decided by their environmental context. In India, a slow fading of the monsoons would equally slowly undermine the Harappan cities, as their peoples gradually abandoned them for a dispersed village life. In China, where a great crisis of flooding forged the beginnings of an early state, a broadly stable structure of the monsoon regime meant that the essential form of the Bronze Age polity would endure to the dawn of modernity.

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Publisher: Cambridge University Press
Print publication year: 2014

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References

Bietak, Manfred and Czerny, Ernst, eds., The Synchronisation of Civilisations in the Eastern Mediterranean in the Second Millennium B.C, Vols. I and II (Vienna, 2000, 2003)
Manning, Sturt W., A Test of Time: The Volcano of Thera and the Chronology and History of the Aegean and East Mediterranean in the Mid Second Millennium BC (Oxford, 1999)
Ramsey, Christopher B. et al., “Radiocarbon-Based Chronology for Dynastic Egypt,” and Hendrick J. Bruins, “Dating Pharaonic Egypt,” Science 328 (2010), 1554–7, 1489–90Google Scholar
Manning, Sturt W. et al., “Anatolian Tree-Rings and a New Chronology for the East Mediterranean Bronze-Iron Age,” Science 294 (2001), 2532–5Google Scholar
Frank, Andre Gunder and Thompson, William R., “Afro-Eurasian Bronze Age Economic Expansion and Contraction Revisited,” JWH 16 (2005), 115–72.Google Scholar
Pollock, Susan, Ancient Mesopotamia: The Eden that Never Was (Cambridge, 1999), 149–95
Snell, Daniel C., Life in the Ancient Near East, 3100–332 B.C.E (New Haven, CT, 1997), 11–29.
Liverani, Mario, “The Collapse of the Near Eastern Regional System at the End of the Bronze Age: The Case of Syria,” in Rowlands, Michael et al., eds., Centre and Periphery in the Ancient World (New York, 1987), 25–35, 66–73
Akkermans, Peter M. M. G. and Schwartz, Glenn M., The Archaeology of Syria: From Complex Hunter-Gatherers to Early Urban Societies (ca. 16,000–300 BC) (New York, 2003), 352–3
Sherratt, Andrew, “What Would a Bronze-Age World System Look Like? Relations between Temperate Europe and the Mediterranean in Later Prehistory,” JEArch 1 (1993), 1–57Google Scholar
Sherratt, Andrew and Sherratt, Susan, “From Luxuries to Commodities: The Nature of Mediterranean Bronze Age Trading Systems,” in Gale, N. H., Bronze Age Trade in the Mediterranean (Jonsered, 1991), 351–86.
Ferrell, Arther, The Origins of War: From the Stone Age to Alexander the Great, rev. ed. (Boulder, CO, 1997), 44–60
Mieroop, Marc van de, A History of the Ancient Near East, ca. 3000–323 B.C (Malden, MA, 2004), 135–7.
Smil, Vaclav, Energy in World History (Boulder, CO, 1994), 50–1
Rosen, Steven A., Lithics after the Stone Age: A Handbook of Stone Tools from the Levant (Walnut Creek, CA, 1997), 142–3
Rosen, Arlene Miller, “The Social Response to Environmental Change in Early Bronze Age Canaan,” JAnthArch 14 (1995), 26–44Google Scholar
Rosen, Arlene Miller, Civilizing Climate: Social Responses to Climate Change in the Ancient Near East (Lanham, MD, 2007), 1–16, 140–3
Thompson, Lonnie G. et al., “Kilimanjaro Ice Core Records: Evidence of Holocene Climate Change in Tropical Africa,” Science 298 (2002), 489–593Google 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
Bar-Matthews, Mira and Ayalon, Avner, “Mid-Holocene Climate Variations Revealed by High-Resolution Speleothem Records from Soreq Cave, Israel and the Correlation with Cultural Changes,” Holocene 21 (2011), 163–71Google Scholar
Butzer, Karl W., “Environmental Change in the Near East and Human Impact on the Land,” in Sasson, Jack M., ed., Civilizations of the Ancient Near East, Vol. 1 (Farmington Hills, MI, 1995), 123–51
Migowski, Claudia et al., “Holocene Climate Variability and Cultural Evolution in the Near East from the Dead Sea Sedimentary Record,” QuatRes 66 (2006), 421–31.Google Scholar
Weiss, H. et al., “The Genesis and Collapse of Third Millennium North Mesopotamia Civilization,” Science 261 (1993), 995–1004Google Scholar
Nüzhet Dalfes, H. et al., eds., Third Millennium BC Climate Change and Old World Collapse (Berlin, 1993)
Cullen, H. M., “Climate Change and the Collapse of the Akkadian Empire: Evidence from the Deep Sea,” Geology 28 (2000), 379–82Google Scholar
DeMenocal, Peter B., “Cultural Responses to Climate Change during the Late Holocene,” Science 292 (2001), 667–73Google Scholar
Issar, Arie S. and Zohar, Mattanyah, Climate Change – Environment and Civilization in the Middle East (Berlin, 2004), 132–7
Drysdale, Russell et al., “Late Holocene Drought Responsible for the Collapse of Old World Civilizations Recorded in an Italian Cave Flowstone,” Geology (2006), 101–4Google Scholar
Stanley, Jean-Daniel et al., “Short Contribution: Nile Flow Failure at the End of the Old Kingdom, Egypt: Strontium Isotopic and Petrologic Evidence,” Geoarchaeology 18 (2003), 395–402Google Scholar
Ensel, Yehouda et al., “Late Holocene Climates of the Near East Deduced from Dead Sea Level Variation and Modern Winter Rainfall,” QuatRes 60 (2003), 263–73Google Scholar
Arz, Helge W. et al., “A Pronounced Dry Event Recorded around 4.2ka in Brine Sediments from the Northern Red Sea,” QuatRes 66 (2006), 432–41Google Scholar
Staubwasser, Michael and Weiss, Harvey, “Holocene Climate and Cultural Evolution in Late Prehistoric-Early Historic West Asia,” QuatRes 66 (2006), 372–87Google Scholar
Kuzucuoğlu, Catherine et al., “Mid- to Late-Holocene Climate Change in Central Turkey: The Tecer Lake Record,” Holocene 21 (2011), 181, 184–5Google Scholar
Bernhardt, Christopher E. et al., “Nile Delta Vegetation Response to Holocene Climate Variability,” Geology 40 (2010), 615–18Google Scholar
Butzer, Karl W., “Collapse, Environment, and Society,” PNAS 109 (2012), at 3633–4.Google Scholar
Bell, Barbara, “The Dark Ages in Ancient History I: The First Dark Age in Egypt,” American Journal of Archaeology 75 (1971), 1–26Google Scholar
Weiss, Harvey, “Beyond the Younger Dryas: Collapse as Adaptation to Abrupt Climate Change in Ancient West Asia and the Eastern Mediterranean,” in Bawden, Garth and Reycraft, Richard M., eds., Environmental Disaster and the Archaeology of Human Response (Albuquerque, NM, 2000), 75–98
Fall, Patricia L. et al., “Agricultural Intensification and the Secondary Products Revolution along the Jordan Rift,” HumEcol 30 (2002), 445–82Google Scholar
Ellison, Rosemary, “Diet in Mesopotamia: The Evidence of the Barley Ration Tests (c. 3000–1400 BC),” Iraq 45 (1981), 35–45Google Scholar
–, “Some Thoughts on the Diet of Mesopotamia from c. 3000–600BC,” Iraq 45 (1983), 146–50
Adams, Robert McC., Land behind Baghdad: A History of Settlement of the Dyala Plains (Chicago, IL, 1965), 42–5.
Jacobsen, Thorkïld, Salinity and Irrigation Agriculture in Antiquity (Malibu, CA, 1982), esp. 52–6
Rein, Bert et al., El Niño Variability off Peru during the Last 20,000 Years,” Paleoceanography 20 (2005), PA403, 1–17Google Scholar
Thompson, Lonnie G., et al., “Ice-Core Paleoclimate Records in the Glacial South America since the Last Glacial Maximum,” JQS 15 (2000), 377–94, at 379Google Scholar
Rodbell, Donald et al., “An ~15,000-Year Record of El Niño-Driven Alluviation in Southwestern Ecuador,” Science 283 (1999), 516–20Google Scholar
Hong, Y. T. et al., “Inverse Phase Oscillations between the East Asian and Indian Ocean Summer Monsoons during the Last 2,000 Years and Paleo-El Niño,” EPSL 231 (2005), 337–46, at 344Google Scholar
Baillie, Mike, Exodus to Arthur: Catastrophic Encounters with Comets (London, 1999), 201–2
Giraudi, C. et al., “The Holocene Climatic Evolution of Mediterranean Italy: A Review of the Continental Geological Data,” Holocene 21 (2011), 105–15Google Scholar
Magny, Michel, “Holocene Climate Variability as Reflected by Mid-European Lake-Level Fluctuations and Its Probable Impact on Prehistoric Human Settlements,” Quaternary International 113 (2004), 65–79Google Scholar
Booth, Robert K. et al., “A Severe Centennial-Scale Drought in Mid-Continental North America 4200 Years Ago and Apparent Global Linkages,” Holocene 15 (2005), 321–8Google Scholar
An, Cheng-Bang et al., “Climate Change and Cultural Response around 4000 cal yr B.P. in the Western Part of Chinese Loess Plateau,” QuatRes 63 (2005), 347–52Google Scholar
Wenxiang, Wu and Tungsheng, Liu, “Possible Role of the ‘Holocene Event 3’on the Collapse of the Neolithic Cultures around the Central Plain of China,” QuatInt 117 (2004), 153–66Google 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), 149–62, see esp. 160Google Scholar
Liu, Li, The Chinese Neolithic: Trajectories to Early States (Cambridge, 2004), 235–6.
Morril, Carrie et al., “A Synthesis of Abrupt Changes in the Asian Monsoon since the Last Deglaciation,” Holocene 13 (2003), 465–76Google Scholar
Yancheva, Gergana et al., “Influence of the Intertropical Convergence Zone on the East Asian Monsoon,” Nature 445 (2007), 74–7Google Scholar
Barnes, Gina L., The Rise of Civilization in East Asia: The Archaeology of China, Korea, and Japan (London, 1999), 69–91, 108–30
Farris, William Wayne, Daily Life and Demographics in Ancient Japan (Ann Arbor, MI, 2009), 8–9
Giosan, Liviu et al., “Fluvial Landscapes of the Harappan Civilization,” PNAS 102 (2012), E1688–E1694Google 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
Madella, Marco and Fuller, Dorian Q., “Paleoecology and the Harappan Civilization of South Asia: A Reconsideration,” QSR 25 (2006), 1283–301Google Scholar
Possehl, Gregory L., The Indus Civilization: A Contemporary Perspective (Lanham, MD, 2002), 237–45
Staubwasser, Michael et al., “Climate Change at the 4.2 ka BP Termination of the Indus Valley Civilization and Holocene South Asian Monsoon Variability,” GRL 30 (2003), 1425Google Scholar
McCoy, Floyd W., “The Late-Bronze Age Explosive Eruption of Thera (Santorini) Greece: Regional and Local Effects,” in McCoy, Floyd W. and Heiken, Grant, eds., Volcanic Hazards and Disasters in Human Antiquity (Boulder, CO, 2000), 43–69
Broad, William J., “It Swallowed a Civilization: Scientists Revisit an Aegean Eruption Far Worse Than Krakatoa,” NYT, October 21, 2003, D1–2Google Scholar
McCoy, Floyd W.. Trevisanato, Siro Igino, “Six Medical Papyri Describe the Effects of Santorini’s Volcanic Ash, and Provide Egyptian Parallels to the So-Called Biblical Plagues,” MedHyp 26 (2006), 187–90Google Scholar
Friedrich, Walter F. et al., “Santorini Eruption Radiocarbon Dated to 1627–1600 B.C.,” Science 312 (2006), 548Google Scholar
Mastrolorenzo, Giuseppe et al., “The Avellino 3780-yr-B.P. Catastrophe as a Worst-Case Scenario for a Future Eruption at Vesuvius,” PNAS 103 (2006), 4366–70Google Scholar
Chadwick, Robert, First Civilizations: Ancient Mesopotamia and Ancient Egypt (London, 2005), 70–2, 168–71
Panagiotakopulu, Eva, “Pharaonic Egypt and the Origins of Plague,” Journal of Biogeography 31 (2004), 269–75Google Scholar
Morelli, Giovanna et al., “Yersinia Pestis Genome Sequencing Identifies Patterns of Global Phylogenetic Diversity,” NatGen 42 (2010), 1140–3.Google Scholar
Trevisanato, Siro I., “Did an Epidemic of Tularemia in Ancient Egypt Affect the Course of World History?MedHyp 63 (2004), 905–10Google Scholar
Snodgrass, Mary Ellen, World Epidemics: A Cultural Chronology of Disease from Prehistory to the Era of SARS (Jefferson, NC, 2003), 10–11
Kohn, George Childs, Encyclopedia of Plague and Pestilence: From Ancient Times to the Present (New York, 2001), 266–7, 407
Conrad, Lawrence I., “The Biblical Tradition for the Plague of the Philistines,” Journal of the American Oriental Society 104 (1984), 281–7Google Scholar
Slattery, Tom, The Tragic End of the Bronze Age: A Virus Makes History (San Jose, CA, 2000)
Ward, William A. and Joukowsky, Martha Sharp, eds., The Crisis Years: The 12th Century B.C.: From beyond the Danube to the Tigris (Dubuque, IA, 1992), 1–26, 61–86, 99–130, 142–50
Drews, Robert, The End of the Bronze Age: Change in Warfare and the Catastrophe ca 1200 B.C (Princeton, NJ, 1993), 48–72, 209–25
Landau, Assaf Yasur, The Philistines and Aegean Migration at the End of the Late Bronze Age (New York, 2010)
Oren, Eliezer D., ed., The Sea Peoples and Their World: A Reassessment (Philadelphia, PA, 2000)
Gitin, Seymour et al., eds., Mediterranean Peoples in Transition: Thirteenth to Early Tenth Centuries, BCE (Jerusalem, 1998)
Robins, Manuel, Collapse of the Bronze Age: The Story of Greece, Troy, Israel, Egypt, and the Peoples of the Sea (San Jose, CA, 2001)
Sandars, N. K., The Sea Peoples: Warriors of the Ancient Mediterranean, rev. ed. (London, 1985)
Nur, Amos, “Poseidon’s Horses: Plate Tectonics and Earthquake Storms in the Late Bronze Age Aegean and Eastern Mediterranean,” JArchS 27 (2000), 43–63Google Scholar
Nur, Amos, with Dawn Burgess, Apocalypse: Earthquakes, Archaeology, and the Wrath of God (Princeton, NJ, 2008), 224–45.
Steinhilber, F. et al., “Interplanetary Magnetic Field during the Past 9300 Years Inferred from Cosmogenic Radionuclides,” JGR 115 (2010), A01104Google Scholar
Bond, Gerard, “Persistent Solar Influence on North Atlantic Climate during the Holocene,” Science 294 (2001), 2131Google Scholar
Rohling, Eelco J. et al., “Holocene Atmosphere-Ocean Interactions: Records from Greenland and the Aegean Sea,” ClimDyn 18 (2002), 587–93Google Scholar
Legge, Heiko Lars and Mutterlose, Jörg, “Climatic Changes in the Northern Red Sea during the Last 22,000 Years as Recorded by Calcareous Nannofossils,” Paleoceanography 21 (2006), PA 1003, 4, 13Google Scholar
Holzhauser, Hanspeter et al., “Glacier and Lake-Level Variations in West-Central Europe over the Last 3500 Years,” Holocene 15 (2009), 789–801Google Scholar
Martin-Puerta, Celia et al., “Regional Atmospheric Circulation Shifts Induced by a Grand Solar Minimum,” NatGeosc (May 6, 2012) (DOI:10.1038/NGEO1460)CrossRefGoogle Scholar
Rohling, Eelco J. et al., “Holocene Climate Variability in the Eastern Mediterranean and the End of the Bronze Age,” in Bachhuber, C. and Roberts, R. B., eds., Forces of Transformation: The End of the Bronze Age in the Mediterranean (Oxford, 2009), 2–5
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 44–8Google Scholar
Amesbury, Matthew J. et al., “Bronze Age Upland Settlement Decline in Southwest England: Testing the Climate Change Hypothesis,” JArchS 35 (2008), 87–98Google Scholar
Zielinski, G. A. et al., “Record of Volcanism since 7000 B.C. from the Gisp2 Greenland Ice Core and Implications for the Volcano-Climate System,” Science 264 (1994), 948–52Google Scholar
Baillie, M. G. L., “Extreme Environmental Events and the Linking of Tree-Ring and Ice-Core Events,” in Jeffrey S. Dean et al., eds., Tree Rings, Environment, and Humanity: Proceedings of the International Conference, Tucson, Arizona, 17–21 May 1994 (Tucson, AZ, 1996), 703–11
Chalié, Françoise and Gasse, Françoise, “Late-Glacial-Holocene Diatom Record of Water Chemistry and Lake Level Change from the Tropical East African Rift Lake Abiyata (Ethiopia),” PPP 187 (2002), 259–83.Google Scholar
Butzer, Karl W., “Long-Term Nile Flood Variation and Political Discontinuities in Pharaonic Egypt,” in Desmond Clark, J. and Brandt, Steven A., eds., From Hunters to Farmers: The Causes and Consequences of Food Production in Africa (Berkeley, CA, 1984), 102–12
Langgut, Dafna et al., “Climate and the Late Bronze Age Collapse: New Evidence from the Southern Levant,” Tel Aviv 40 (2013), 149–75Google Scholar
Kaniewski, D. et al., “Late Second–Early First Millennium BC Abrupt Climate Changes in Coastal Syria and Their Possible Significance for the History of the Eastern Mediterranean,” Quaternary Research 74 (2010), 207–15Google Scholar
Bernhardt, et al., “Nile Delta Vegetation Response”; Thucydides, History of the Peloponnesian War, Rex Warner, trans. (London, 1954, rev. ed., 1972), 37–9
Achilli, Alessandro et al., “Mitochondrial DNA Variation of Modern Tuscans Supports the Near Eastern Origin of Etruscans,” AJHG 80 (2007), 759–68Google Scholar
Drews, Robert, “Herodotus 1.94, the Drought ca. 1200 B.C., and the Origin of the Etruscans,” Historia 41 (1992), 14–39.Google Scholar
Negrini, R. et al., “Differentiation of European Cattle by AFLP Fingerprinting,” Animal Genetics 38 (2007), 60–6Google Scholar
Matthews, Roger, “Zebu: Harbingers of Doom in Bronze Age Western Asia?Antiquity 76 (2002), 438–46Google Scholar
Barfield, Thomas J., The Perilous Frontier: Nomadic Empires and China (Cambridge, MA, 1989), 28–9
Neumann, J. and Parpola, S., “Climate Change and the Eleventh-Tenth Century Eclipse of Assyria and Babylonia,” Journal of Near Eastern Studies 46 (1987), 161–82Google Scholar
Lieberman, Victor, Strange Parallels: Southeast Asia in Global Context, c. 800–1830. Vol. II: Mainland Mirrors: Europe, Japan, China, South Asia and the Islands (New York, 2009), 85–7, 92–114
Snodgrass, Anthony M., “Iron and Early Metallurgy in the Mediterranean,” in Theodore A. Wertime and James D. Muhly, eds., The Coming of the Age of Iron (New Haven, CT, 1980), 25–98, 335–74
Waldbaum, Jane C., “The Coming of Iron in the Eastern Mediterranean: Thirty Years of Archaeological and Technological Research,” in Pigott, Vincent C., ed., The Archaeometallurgy of the Asian Old World (Philadelphia, PA, 1999), 1–58
Runnels, Curtis N., “Flaked-Stone Artifacts in Greece during the Historical Period,” JFdArch 9 (1982), 364–73Google Scholar
Haarer, Peter, “Problematizing the Transition from Bronze to Iron,” in Shortland, Andrew J., ed., The Social Context of Technological Changes: Egypt and the Near East, 1650–1550 BC (Oxford, 2001), 255–71.
Armstrong, Karen, Great Transformation: The Beginning of our Religious Traditions (New York, 2006)
Eisenstadt, Shmuel N., ed., The Origins and Diversity of Axial Age Civilizations (Albany, NY, 1986)
Arnason, Johann P. et al., eds., Axial Civilization and World History (Leiden, 2005)
Meyer, Jorgen C., “Trade in the Bronze Age and Iron Age Empires: A Comparison,” in Bang, Peter F. et al., eds., Ancient Economies, Modern Methodologies: Archaeology, Comparative History, Models and Institutions (Bari, 2006), 89–106
Sherratt, Susan and Sherratt, Andrew, “The Growth of the Mediterranean Economy in the Early First Millennium BC,” WdArch 24 (1993), 361–78Google Scholar
Sherratt, Andrew, “Europe Prehistory,” in Butlin, R. A. and Dodgshon, R. A., eds., An Historical Geography of Europe (Oxford, 1998), esp. 15–23
Sherratt, Andrew and Sherratt, Susan, “Technological Change in the East Mediterranean Bronze Age: Capital, Resources, and Marketing,” in Shortland, The Social Context of Technological Change, 15–38; Michael Rowlands, “From ‘the Gift’ to Market Economies: The Ideology and Politics of European Iron Age Studies,” and Kristian Kristiansen, “The Emergence of the European World System in the Bronze Age: Divergence, Convergence and Social Evolution during the First and Second Millennia BC in Europe,” in Kristiansen, Kristian and Jenson, Jorgen, eds., Europe in the First Millennium B.C (Sheffield, 1994), 1–31
Gelb, I. J., A Study of Writing, rev. ed. (Chicago, IL, 1963), 166–205
Gelb, I. J., The Origins of the Alphabet (Amherst, NY, 2002)
Koutavas, Athanasios et al., “Mid-Holocene El Niño-Southern Oscillation (ENSO) Attenuation Revealed by Individual Foraminifera in Eastern Tropical Pacific Sediments,” Geology 34 (2006), 993–6.Google Scholar
Maher, Barbara A. and Hu, Mengyu, “A High-Resolution Record of Holocene Rainfall Variations from the Western Chinese Loess Plateau: Antiphase Behaviour of the African/Indian and East Asian Summer Monsoons,” Holocene 16 (2006), 309–16.Google Scholar
Linduff, Katheryn M. and Mei, Jiajun, “Metallurgy in Ancient East Asia: Retrospect and Prospects,” JWP 22 (2009), 265–81Google Scholar
Linduff, Katheryn M., “Introduction,” in Linduff, Katheryn M. et al., eds., The Beginnings of Metallurgy in China (Lewiston, NY, 2000), 1–28
Sherratt, Andrew, “The Trans-Eurasian Exchange: The Prehistory of Chinese Relations with the West,” in Mair, Victor H., ed., Contact and Exchange in the Ancient World (Honolulu, HI, 2006), 30–61.
Moseley, Michael E., The Incas and Their Ancestors: The Archaeology of Peru, rev. ed. (London, 2001), 131–58
Burger, Richard L., Chavin and the Origins of Andean Civilization (London, 1992), 57–103.
Anderson, Atholl et al., “Prehistoric Maritime Migration in the Pacific Islands: An Hypothesis of ENSO Forcing,” Holocene 16 (2006), 1–6.Google Scholar
Yancheva, , “Influence of the Intertropical Convergence Zone on the East Asian Monsoon” demonstrates the general relationship between weak summer monsoons and strong winter monsoons, and the striking chronology of winter monsoons in the Lake Huang Maar sediments (south China coast), the ITCZ proxy at Cariaco, and the traditional sequence of Chinese history. See her reply in a critical exchange in Nature 450 (2007), E8–9Google Scholar
Brook, Timothy, The Troubled Empire: China in the Yuan and Ming Dynasties (Cambridge, MA, 2010)
Chang, Chun-shu, The Rise of the Chinese Empire: Nation, State, and Imperialism in Early China, ca. 1600 B.C.–A.D. 8 (Ann Arbor, MI, 2007), 14
Elvin, Mark, The Retreat of the Elephants: An Environmental History of China (New Haven, CT, 2004), 9–85
Bruhns, Karen Olsen, Ancient South America (Cambridge, 1994), 174–84, 126–39
Richardson, James B., People of the Andes (Washington DC, 1994), 87–90
Sandweiss, Daniel H. et al., “Variation in Holocene El Niño Frequencies: Climate Records and Cultural Consequences in Ancient Peru,” Geology 29 (2001), 603–6Google Scholar
Messenger, Lewis C., Jr., “Ancient Winds of Change: Climatic Settings and Prehistoric Social Complexity,” Ancient Mesoamerica 1 (1990), 21–40, esp. 27Google Scholar
Evans, Susan Toby, Ancient Mexico and Central America: Archaeology and Culture History (New York, 2008), 137–234, esp. 123, 133, 150, 158, 168
Pool, Christopher A., Olmec Archaeology and Early Mesoamerica (New York, 2007)
Fagan, Brian M., Ancient North America: The Archaeology of a Continent (New York, 2005), 421–56
Munoz, Samuel E. et al., “Synchronous Environmental and Cultural Change in the Prehistory of Northeastern United States,” PNAS 107 (2010), 22008–13.Google Scholar
Thapar, Romila, Early India: From the Origins to AD 1300 (London, 2002), 98–136
Gadgil, Madhav and Gupta, Ramachandra, This Fissured Land: An Ecological History of India (Oxford, 1992), 78–81
Bellwood, Peter, First Farmers: The Origins of Agricultural Societies (Malden, MA, 2005), 210–17
Bryant, Edwin F. and Patton, Laurie L., eds. The Indo-Aryan Controversy: Evidence and Inference in Indian History (London, 2005)
Tewari, Rakesh, “The Origins of Iron Working in India: New Evidence from the Central Ganga Plain and the Eastern Vindhyas,” Antiquity 77 (2003), 536–44Google Scholar
Staubwasser, Michael, “An Overview of Holocene South Asian Monsoon Records – Monsoon Domains and Regional Contrasts,” Journal Geological Society of India 68 (2006), 433–46Google Scholar
Phadtare, Netajirao R., “Sharp Decrease in Summer Monsoon Strength 4000–3500 cal yr B. P. in the Central Higher Himalaya of India Based in Pollen Evidence from Alpine Peat,” QuatRes 53 (2000), 122–9.Google Scholar
Weldeab, Syree et al., “Holocene African Droughts Relate to Eastern Equatorial Atlantic Cooling,” Geology 33 (2005), 981–4Google Scholar
Russell, J. M. et al., “725 yr Cycle in the Climate of Central Africa during the Late Holocene,” Geology 31 (2003), 677–80Google Scholar
Street-Perrott, F. A. et al., “Drought and Dust Deposition in the West African Sahel: A 5500-Year Record from Kajemarum Oasis, Northeastern Nigeria,” Holocene 10 (2000), 293–302.Google Scholar
Webb, James L. A., “Ecology & Culture in West Africa,” in Emmanuel Kwaku Akyeampong, ed., Themes in West African History (Athens, OH, 2006), 20–8, 40–2
Philipson, David W., African Archaeology, third edition (Cambridge, 2005), 195–203, 234–69
Klieman, Kairn A., “The Pygmies Were Our Compass”: Bantu and Batwa in the History of West Central Africa, Early Times to c. 1900 C.E (Portsmouth, NH, 2003), 95–132
Rathbun, Ted A., “Skeletal Pathology from the Paleolithic through the Metal Ages in Iran and Iraq,” and J. Lawrence Angel, “Health as a Crucial Factor in the Changes from Hunting to Developed Farming in the Eastern Mediterranean,” in Cohen, Mark N. and Armelagos, George J., eds., Paleopathology at the Origins of Agriculture (New York, 1984), 51–73, 137–67
Zakrzewski, Sonia R., “Variations in Ancient Egyptian Stature and Body Proportions,” AJPA 121 (2003), 219–29Google Scholar
Starling, Anne P. and Stock, Jay T., “Dental Indicators of Health and Stress in Early Egyptian and Nubian Agriculturalists, A Difficult Transition and Gradual Recovery,” AJPA 134 (2007), 520–8.Google Scholar
Bennike, Pia, Paleopathology of Danish Skeletons: A Comparative Study of Demography, Disease and Injury (Copenhagen, 1985), 50–1
Gerhards, Guntis, “Secular Variations in the Body Stature of the Inhabitants of Latvia (7th millennium BC–20th c. AD),” Acta Medica Lituanica 12 (2005), 33–9Google Scholar
Robb, John et al., “Social ‘Status’ and Biological ‘Status’: A Comparison of Grave Goods and Skeletal Indicators from Pontecagnano,” AJPA 115 (2001), 213–22Google Scholar
Roberts, Charlotte and Cox, Margaret, “The Impact of Economic Intensification and Social Complexity on Human Health in Britain from 6000 BP (Neolithic) and the Introduction of Farming to the Mid-Nineteenth Century AD,” in Cohen, Mark Nathan and Crane-Kramer, Gillian M. M., eds., Ancient Health: Skeletal Indicators of Agricultural and Economic Intensification (Gainesville, FL, 2007), 149–63.
Oxenham, Marc F., “Skeletal Evidence for the Emergence of Infectious Disease in Bronze and Iron Age North Vietnam,” AJPA 126 (2004), 359–76Google Scholar
Lovell, Nancy C., “Anaemia in the Ancient Indus Valley,” International Journal of Osteoarchaeology 7 (1997), 115–23Google Scholar
Pietrusewsky, Michael and Douglas, Michele Toomay, “Intensification of Agriculture in Ban Chiang: Is There Evidence from the Skeletons?Asian Perspectives 40 (2002), 157–78.Google Scholar
Lukacs, John R., “Dental Paleopathology and Agricultural Intensification in South Asia: New Evidence from Bronze Age Harappa,” AJPA 87 (1992), 133–50, esp. 147–8Google Scholar
Nelson, Greg C. et al., “Dates, Caries and Tooth Loss during the Iron Age of Oman,” AJPA 108 (1999), 333–43.Google Scholar
Finkel, D. J., “Sexual Dimorphism and Settlement Pattern in Middle Eastern Skeletal Populations,” in Hall, R. L., ed., Sexual Dimorphism in Homo Sapiens: A Question of Size (New York, 1982), 165–85, at 182
Ubelaker, Douglas U. and Pap, Ildikó, “Skeletal Evidence for Health and Disease in the Iron Age of Northeastern Hungary,” International Journal of Osteoarchaeology 8 (1998), 231–51, esp. 248–9Google Scholar
Sallares, Robert et al., “The Spread of Malaria to Southern Europe in Antiquity: New Approaches to Old Problems,” Medical History 48 (2004), 311–28.Google Scholar

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