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The Climate Downturn of 536–50

  • Timothy P. Newfield
Chapter

Abstract

This chapter surveys the evolution of research on the 536–50 CE climatic downturn and its human impacts. It presents the written evidence for atmospheric anomalies over the Mediterranean alongside the ever-growing wealth of relevant ice core and tree ring scholarship, and it highlights changes in reconstruction and interpretation as scholars reworked old evidence and injected new data. Judgments about the downturn’s historical significance in multiple world regions are discussed but not assessed in depth. In line with current evidence, the chapter concludes that the anomaly was a discontinuous complex of phenomena whose effects were extreme but varied across space and time. A cluster of very large volcanic eruptions triggered exceptional cooling and possibly drought across several parts of the globe. This was not a “536 event” or a “mystery cloud” of 12 or 18 months’ duration. It was a decade and a half of marked cold, with troughs in summer temperatures around 536, 540–1, and 545–6.

References

  1. Abbott, D.H. et al. “Magnetite and Silicate Spherules from the GISP2 Core at the 536 A.D. Horizon.” In American Geophysical Union, Fall Meeting 2008 Abstracts, 2008.Google Scholar
  2. Abbott, D.H. et al. “What Caused Terrestrial Dust Loading and Climate Downturns Between A.D. 533 and 540?” Geological Society of America Special Papers 505 (2014a): 421–38.Google Scholar
  3. Abbott, D.H. et al. “Calendar-Year Dating of the Greenland Ice Sheet Project 2 (GISP2) Ice Core from the Early Sixth Century Using Historical, Ion, and Particulate Data.” Geological Society of America Special Papers 505 (2014b): 411–20.Google Scholar
  4. Aizen, E.M. et al. “Abrupt and Moderate Climate Changes in the Mid-Latitudes of Asia During the Holocene.” Journal of Glaciology 62 (2016): 411–39.Google Scholar
  5. Anchukaitis, K.J. et al. “Tree Rings and Volcanic Cooling.” Nature Geoscience 5 (2012): 836–37.Google Scholar
  6. Arjava, Antti. “The Mystery Cloud of 536 CE in the Mediterranean Sources.” Dumbarton Oaks Papers 59 (2005): 73–94.Google Scholar
  7. Arrhenius, B. “Helgö in the Shadow of the Dust Veil, 536–37.” Journal of Archaeology and International History 5 (2013): 1–14.Google Scholar
  8. Arrighi, S. et al. “Recent Eruptive History of Stromboli (Aeolian Islands, Italy) Determined from High-Accuracy Archeomagnetic Dating.” Geophysical Research Letters 31 (2004): L19603.Google Scholar
  9. Aston, W.G. Nihongi: Chronicles of Japan from the Earliest Times to A.D. 697. London: Kegan Paul, Trench, Trübner and Co., 1896.Google Scholar
  10. Atwell, William. “Volcanism and Short-Term Climatic Change in East Asian and World History c.1200–1699.” Journal of World History 12 (2001): 29–99.Google Scholar
  11. Axboe, M. “The Year 536 and the Scandinavian Gold Hoards.” Medieval Archaeology 43 (1999): 186–88.Google Scholar
  12. Axboe, M. “Amulet Pendants and a Darkened Sun: On the Function of the Gold Bracteates and a Possible Motivation for the Large Gold Hoards.” In Roman Gold and the Development of the Early Germanic Kingdoms: Aspects of Technical, Socio-Political, Socio-Economic, Artistic and Intellectual Development, A.D. 1–500: Symposium in Stockholm 14–16 November 1997, edited by B. Magnus, 119–36. Stockholm: Almqvist & Wiksell International, 2001.Google Scholar
  13. Baillie, M.G.L. “Dendrochronology Raises Questions About the Nature of the AD 536 Dust-Veil Event.” Holocene 4 (1994): 212–17.Google Scholar
  14. Baillie, M.G.L. Exodus to Arthur: Catastrophic Encounters with Comets. London: B.T. Batsford, 1999.Google Scholar
  15. Baillie, M.G.L. “Proposed Re-Dating of the European Ice Core Chronology by Seven Years Prior to the 7th Century AD.” Geophysical Research Letters 35 (2008): L15813.Google Scholar
  16. Ben-Ari, T.S. et al. “Plague and Climate: Scales Matter.” PLoS Pathogens 7 (2011): e100216.Google Scholar
  17. Berkes, F. “Traditional Ecological Knowledge in Perspective.” In Traditional Ecological Knowledge: Concepts and Cases, edited by J. Inglis, 1–10. Ottawa: International Development Research Centre, 1993.Google Scholar
  18. Biraben, J.N., and J. Le Goff. “The Plague in the Early Middle Ages.” In Biology of Man in History, edited by R. Forster and O.A. Ranum, 48–80. Baltimore, MD: Johns Hopkins University Press, 1975.Google Scholar
  19. Bondesson, L., and T. Bondesson. “Barbarisk Imitation Av Bysantinsk Solidus: Ett Soloffer På Själland.” Fornvännen 107 (2012): 167–70.Google Scholar
  20. Bondesson, L., and T. Bondesson. “On the Mystery Cloud of AD 536, A Crisis in Dispute and Epidemic Ergotism: A Linking Hypothesis.” Danish Journal of Archaeology 3 (2014): 61–67.Google Scholar
  21. Bos, Kirsten I. et al. “Eighteenth Century Yersinia Pestis Genomes Reveal the Long-Term Persistence of an Historical Plague Focus.” eLife 5 (2016): e12994.Google Scholar
  22. Bradley, R.S. “The Explosive Volcanic Eruption Signal in Northern Hemisphere Continental Temperature Records.” Climatic Change 12 (1988): 221–43.Google Scholar
  23. Briffa, K.R. “Annual Climate Variability in the Holocene: Interpreting the Message of Ancient Trees.” Quaternary Science Reviews 19 (2000): 87–105.Google Scholar
  24. Brown, Neville. History and Climate Change: A Eurocentric Perspective. London: Routledge, 2001.Google Scholar
  25. Büntgen, Ulf, and W. Tegel. “European Tree-Ring Data and the Medieval Climate Anomaly.” PAGES News 19 (2011): 14–15.Google Scholar
  26. Büntgen, Ulf et al. “2500 Years of European Climate Variability and Human Susceptibility.” Science 331 (2011): 578–82.Google Scholar
  27. Büntgen, Ulf et al. “Cooling and Societal Change During the Late Antique Little Ice Age from 536 to Around 660 AD.” Nature Geoscience 9 (2016): 231–36.Google Scholar
  28. Cameron, Averil. Procopius and the Sixth Century. Berkeley: University of California Press, 1985.Google Scholar
  29. Campbell, Bruce M.S. “Nature as Historical Protagonist: Environment and Society in Pre-Industrial England.” The Economic History Review 63 (2010): 281–314.Google Scholar
  30. Campbell, Bruce M.S. “Grain Yields on English Demesnes After the Black Death.” In Town and Countryside in the Age of the Black Death: Essays in Honour of John Hatcher, edited by M. Bailey and S. Rigby, 121–74. Turnhout, Belgium: Brepols, 2012.Google Scholar
  31. Carleton, W.C. et al. “A Reassessment of the Impact of Drought Cycles on the Classic Maya.” Quaternary Science Reviews 105 (2014): 151–61.Google Scholar
  32. Cassiodorus. The Letters of Cassiodorus: Being a Condensed Translation of the Variae Epistolae of Magnus Aurelius Cassiodorus Senator with an Introduction, by Thomas Hodgkin. Translated by Thomas Hodgkin. London: Henry Fowde, 1886.Google Scholar
  33. Charles-Edwards, T.M. The Chronicle of Ireland. Liverpool: Liverpool University Press, 2006.Google Scholar
  34. Cheyette, Frederic. “The Disappearance of the Ancient Landscape and the Climatic Anomaly of the Early Middle Ages: A Question to Be Pursued.” Early Medieval Europe 16 (2008): 127–65.Google Scholar
  35. Christiansen, B., and F. Ljungqvist. “The Extra-Tropical Northern Hemisphere Temperature in the Last Two Millennia: Reconstructions of Low-Frequency Variability.” Climate of the Past 8 (2012): 765–86.Google Scholar
  36. Chronicon Paschale 284–628 AD, edited by M. Whitby and M. Whitby. Liverpool: Liverpool University Press, 1989.Google Scholar
  37. Chu, Guoqiang et al. “Seasonal Temperature Variability During the Past 1600 Years Recorded in Historical Documents and Varved Lake Sediment Profiles from Northeastern China.” The Holocene 22 (2011): 785–92.Google Scholar
  38. Churakova, Olga V. et al. “A Cluster of Stratospheric Volcanic Eruptions in the AD 530s Recorded in Siberian Tree Rings.” Global and Planetary Change 122 (2014): 140–50.Google Scholar
  39. Cioni, R. et al. “The 512 AD Eruption of Vesuvius: Complex Dynamics of a Small Scale Subplinian Event.” Bulletin of Volcanology 73 (2011): 789–810.Google Scholar
  40. Clausen, H.B. et al. “A Comparison of the Volcanic Records Over the Past 4000 Years from the Greenland Ice Core Project and Dye 3 Cores.” Journal of Geophysical Research 102 (1997): 26707–23.Google Scholar
  41. Clube, S., and W. Napier. “Catastrophism Now.” Astronomy Now 5 (1991): 46–49.Google Scholar
  42. Cole-Dai, J. “Volcanoes and Climate.” Wiley Interdisciplinary Reviews: Climate Change 1 (2010): 824–39.Google Scholar
  43. Cole-Dai, J. et al. “4100 Year Record of Explosive Volcanism from an East Antarctic Ice Core.” Journal of Geophysical Research: Atmospheres 105 (2000): 24431–41.Google Scholar
  44. Cook, Edward R. et al. “Millennia-Long Tree-Ring Records from Tasmania and New Zealand: A Basis for Modelling Climate Variability and Forcing, Past, Present and Future.” Journal of Quaternary Science 21 (2006): 689–99.Google Scholar
  45. Cook, Edward R. et al. “Old World Megadroughts and Pluvials During the Common Era.” Science Advances 1 (2015): e1500561.Google Scholar
  46. Curtis, J. et al. “Climate Variability on the Yucatan Peninsula (Mexico) During the Past 3500 Years, and Implications for Maya Cultural Evolution.” Quaternary Research 46 (1996): 37–47.Google Scholar
  47. Dahlin, B.H., and A.F. Chase. “A Tale of Three Cities: Effects of the AD 536 Event in the Lowland Maya Heartland.” In The Great Maya Droughts in Cultural Context: Case Studies in Resilience and Vulnerability, edited by G. Iannone, 127–55. Boulder: University of Colorado Press, 2014.Google Scholar
  48. D’Arrigo, Rosanne et al. “Dendroclimatological Evidence for Major Volcanic Events of the Past Two Millennia.” In Volcanism and the Earth’s Atmosphere, edited by Alan Robock and Clive Oppenheimer, 255–61. Washington, DC: American Geophysical Union, 2003.Google Scholar
  49. Davis, R. The Book of Pontiffs (Liber Pontificalis): The Ancient Biographies of the First Ninety Roman Bishops to AD 715. Liverpool: Liverpool University Press, 2000.Google Scholar
  50. Devroey, J.P., and A.N. Jaubert. “Family, Income and Labour around the North Sea, 500–1000.” In Making a Living: Family, Labour and Income, edited by E. Vanhaute. Turnhout: Brepols, 2011.Google Scholar
  51. Diaz, H., and V. Trouet. “Some Perspectives on Societal Impacts of Past Climatic Changes.” History Compass 12 (2014): 160–77.Google Scholar
  52. Dull, R. “Lessons from the Mud, Lessons from the Maya: Paleoecological Records of the Tierra Blanca Joven Eruption.” Geological Society of America Special Papers 375 (2004): 237–44.Google Scholar
  53. Dull, R. et al. “Volcanism, Ecology and Culture: A Reassessment of the Volcán Ilopango TBJ Eruption in the Southern Maya Realm.” Latin American Antiquity 12 (2001): 25–44.Google Scholar
  54. Dull, R. et al. “Did the Ilopango TBJ Eruption Cause the 536 Event.” In AGU Fall Meeting, Abstracts, 2010.Google Scholar
  55. Dunning, Nicholas P. et al. “Kax and Kol: Collapse and Resilience in Lowland Maya Civilization.” Proceedings of the National Academy of Sciences 109 (2012): 3652–57.Google Scholar
  56. Esper, Jan et al. “European Summer Temperature Response to Annually Dated Volcanic Eruptions Over the Past Nine Centuries.” Bulletin of Volcanology 75 (2013): 1–14.Google Scholar
  57. Esper, Jan et al. “Signals and Memory in Tree-Ring Width and Density Data.” Dendrochronologia 35 (2015): 62–70.Google Scholar
  58. Espíndola, J.M. et al. “Volcanic History of El Chichón Volcano (Chiapas, Mexico) During the Holocene, and Its Impact on Human Activity.” Bulletin of Volcanology 62 (2000): 90–104.Google Scholar
  59. Farquharson, P. “Byzantium, Planet Earth and the Solar System.” In The Sixth Century: End or Beginning, edited by P. Allen and E. Jeffreys, 263–69. Brisbane: Australian Association for Byzantine Studies, 1996.Google Scholar
  60. Feldman, M. et al. “A High-Coverage Yersinia pestis Genome from a Sixth-Century Justinianic Plague Victim.” Molecular Biology and Evolution 33 (2016): 2911–23.Google Scholar
  61. Ferris, Dave G. et al. “South Pole Ice Core Record of Explosive Volcanic Eruptions in the First and Second Millennia A.D. and Evidence of a Large Eruption in the Tropics around 535 A.D.” Journal of Geophysical Research: Atmospheres 116 (2011): D17308.Google Scholar
  62. Fischer, E.M. et al. “European Climate Response to Tropical Volcanic Eruptions over the Last Half Millennium.” Geophysical Research Letters 34 (2007): L05707.Google Scholar
  63. Gao, Chaochao et al. “Volcanic Forcing of Climate Over the Past 1500 Years: An Improved Ice Core-Based Index for Climate Models.” Journal of Geophysical Research: Atmospheres 113 (2008): D23111.Google Scholar
  64. García-Suárez, A. et al. “Climate Signal in Tree-Ring Chronologies in a Temperate Climate: A Multi-Species Approach.” Dendrochronologia 27 (2009): 183–98.Google Scholar
  65. Garnsey, P. Famine and Food Supply in the Graeco-Roman World: Responses to Risk and Crisis. New York: Cambridge University Press, 1988.Google Scholar
  66. Ge, Q.S. et al. “Temperature Variation Through 2000 Years in China: An Uncertainty Analysis of Reconstruction and Regional Difference.” Geophysical Research Letters 37 (2010): L03703.Google Scholar
  67. Gill, Richardson. The Great Maya Droughts: Water, Life, and Death. Albuquerque: University of New Mexico Press, 2000.Google Scholar
  68. Gill, R.B., and J. Keating. “Volcanism and Mesoamerican Archaeology.” Ancient Mesoamerica 13 (2002): 125–40.Google Scholar
  69. Gowland, R.L., and A.G. Western. “Morbidity in the Marshes: Using Spatial Epidemiology to Investigate Skeletal Evidence for Malaria in Anglo-Saxon England (AD 410–1050).” American Journal of Physical Anthropology 147 (2012): 301–11.Google Scholar
  70. Gräslund, B., and N. Price. “Twilight of the Gods? The ‘Dust Veil Event’ of AD 536 in Critical Perspective.” Antiquity 86 (2012): 428–43.Google Scholar
  71. Grattan, J.P., and F.B. Pyatt. “Volcanic Eruptions Dry Fogs and the European Palaeoenvironmental Record: Localised Phenomena or Hemispheric Impacts.” Global and Planetary Change 21 (1999): 173–79.Google Scholar
  72. Grove, A.T., and Oliver Rackham. The Nature of Mediterranean Europe: An Ecological History. New Haven, CT: Yale University Press, 2001.Google Scholar
  73. Haldon, John et al. “The Climate and Environment of Byzantine Anatolia: Integrating Science, History, and Archaeology.” Journal of Interdisciplinary History 45 (2014): 113–61.Google Scholar
  74. Hammer, C.U. “Traces of Icelandic Eruptions in the Greenland Ice Sheet.” Jokull 34 (1984): 51–65.Google Scholar
  75. Hammer, C.U. et al. “Greenland Ice Sheet Evidence of Post-Glacial Volcanism and Its Climatic Impact.” Nature 288 (1980): 230–35.Google Scholar
  76. Harbeck, M. et al. “Yersinia Pestis DNA from Skeletal Remains from the 6th Century Reveals Insights into Justinianic Plague.” PLoS Pathogens 9 (2013): e1003349.Google Scholar
  77. Haug, G. et al. “Climate and the Collapse of Maya Civilization.” Science 299 (2003): 1731–35.Google Scholar
  78. Headrick, D. “The Medieval World, 500 to 1500 CE.” In A Companion to Global Environmental History, edited by J.R. McNeill and E.S. Mauldin, 39–56. Hoboken, NJ: Wiley, 2012.Google Scholar
  79. Heming, R.F. “Geology and Petrology of Rabaul Caldera, Papua New Guinea.” Geological Society of America Bulletin 85 (1974): 1253–64.Google Scholar
  80. Herron, Michael M. “Impurity Sources of F−, Cl−, NO3− and SO42− in Greenland and Antarctic Precipitation.” Journal of Geophysical Research: Oceans 87 (1982): 3052–60.Google Scholar
  81. Hodell, David A. et al. “Possible Role of Climate in the Collapse of Classic Maya Civilization.” Nature 375 (1995): 391–94.Google Scholar
  82. Hodell, David A. et al. “Solar Forcing of Drought Frequency in the Maya Lowlands.” Science 292 (2001): 1367–70.Google Scholar
  83. Hodell, David A. et al. “Terminal Classic Drought in the Northern Maya Lowlands Inferred from Multiple Sediment Cores in Lake Chichancanab (Mexico).” Quaternary Science Reviews 24 (2005): 1413–27.Google Scholar
  84. Holzhauser, H. et al. “Glacier and Lake-Level Variations in West-Central Europe Over the Last 3500 Years.” The Holocene 15 (2005): 789–801.Google Scholar
  85. Horden, P. “Mediterranean Plague in the Age of Justinian.” In The Cambridge Companion to the Age of Justinian, edited by M. Mass, 134–60. New York: Cambridge University Press, 2005.Google Scholar
  86. Houston, Margaret S. “Chinese Climate, History, and Stability in A.D. 536.” In The Years Without Summer: Tracing A.D. 536 and Its Aftermath, edited by J. Gunn, 71–77. Oxford: Archaeopress, 2000.Google Scholar
  87. Iles, C. et al. “The Effect of Volcanic Eruptions on Global Precipitation.” Journal of Geophysical Research Letters: Atmospheres 118 (2013): 8770–86.Google Scholar
  88. Izdebski, A. et al. “The Environmental, Archaeological and Historical Evidence for Regional Climatic Changes and Their Societal Impacts in the Eastern Mediterranean in Late Antiquity.” Quaternary Science Reviews 136 (2015): 189–208.Google Scholar
  89. Jensen, Britta et al. “Transatlantic Distribution of the Alaskan White River Ash.” Geology 42 (2014): 875–78.Google Scholar
  90. Jones, P. et al. “High-Resolution Palaeoclimatology of the Last Millennium: A Review of Current Status and Future Prospects.” The Holocene 19 (2009): 3–49.Google Scholar
  91. Kausrud, Kyrre L. et al. “Modeling the Epidemiological History of Plague in Central Asia: Palaeoclimatic Forcing on a Disease System over the Past Millennium.” BMC Biology 8 (2010): 112.Google Scholar
  92. Kelly, P.M., and C.B. Sear. “Climatic Impact of Explosive Volcanic Eruptions.” Nature 311 (1984): 740–43.Google Scholar
  93. Keys, David. Catastrophe: An Investigation into the Origins of the Modern World. New York: Ballantine, 2000.Google Scholar
  94. Kitamura, Shigeru. “Two AMS Radiocarbon Dates for the TBJ Tephra from Ilopango Caldera, El Salvador, Central America.” Bulletin of the Faculty of Social Work, Hirosaki Gakuin University 10 (2010): 24–28.Google Scholar
  95. Kobashi, Takuro et al. “High Variability of Greenland Surface Temperature Over the Past 4000 Years Estimated from Trapped Air in an Ice Core.” Geophysical Research Letters 38 (2011): L21501.Google Scholar
  96. Koder, Johannes. “Climatic Change in the Fifth and Sixth Centuries?” In The Sixth Century – End or Beginning, edited by P. Allen and E.M. Jeffreys, 270–85. Brisbane: Australian Association for Byzantine Studies, 1996.Google Scholar
  97. Kostick, C., and F. Ludlow. “The Dating of Volcanic Events and Their Impact Upon European Society, 400–800 CE.” Post Classical Archaeologies 5 (2015): 7–30.Google Scholar
  98. Kurbatov, A.V. et al. “A 12,000 Year Record of Explosive Volcanism in the Siple Dome Ice Core, West Antarctica.” Journal of Geophysical Research: Atmospheres 111 (2006): D12307.Google Scholar
  99. LaMarche, V., and K. Hirschboeck. “Frost Rings in Trees as Records of Major Volcanic Eruptions.” Nature 307 (1984): 121–26.Google Scholar
  100. Lane, C.S. et al. “Beyond the Mayan Lowlands: Impacts of the Terminal Classic Drought in the Caribbean Antilles.” Quaternary Science Reviews 86 (2014): 89–98.Google Scholar
  101. Larsen, L.B. et al. “New Ice Core Evidence for a Volcanic Cause of the A.D. 536 Dust Veil.” Geophysical Research Letters 35 (2008): L04708.Google Scholar
  102. Lee, A.D. From Rome to Byzantium AD 363 to 565: The Transformation of Ancient Rome. Edinburgh: Edinburgh University Press, 2013.Google Scholar
  103. Little, L., ed. Plague and the End of Antiquity: The Pandemic of 541–750. New York: Cambridge University Press, 2007.Google Scholar
  104. Löwenborg, D. “An Iron Age Shock Doctrine – Did the AD 536-7 Event Trigger Large-Scale Social Changes in the Mälaren Valley Area?” Journal of Archaeology and International History 4 (2012): 1–29.Google Scholar
  105. Lucero, L. “The Collapse of the Classic Maya: A Case for the Role of Water Control.” Archeological Papers of the American Anthropological Association 9 (1999): 35–49.Google Scholar
  106. Luterbacher, Jürg, and Christian Pfister. “The Year Without a Summer.” Nature Geoscience 8 (2015): 246–48.Google Scholar
  107. Luterbacher, Jürg et al. “A Review of 2000 Years of Paleoclimatic Evidence in the Mediterranean.” In The Climate of the Mediterranean Region: From the Past to the Future, edited by P. Lionello, 87–185. Burlington: Elsevier Science, 2012.Google Scholar
  108. Luterbacher, Jürg et al. “European Summer Temperatures Since Roman Times.” Environmental Research Letters 11 (2016): 024001.Google Scholar
  109. Lydian, John. Liber de Ostentis et Calendaria Graeca Omnia. Edited by C. Wachsmuth. Leipzig: G. Teubneri, 1897.Google Scholar
  110. Macfarlane, R.T. “Vesuvian Narratives: Collisions and Collusions of Man and Volcano.” In Apolline Project 1: Studies on Vesuvius’ North Slope and the Bay of Naples, edited by G. De Simone and R.T. Macfarlane, 103–21. Naples: Università degli studi Suor Orsola Benincasa, 2009.Google Scholar
  111. Maddicott, J. “Plague in Seventh-Century England.” Past and Present 156 (1997): 7–54.Google Scholar
  112. Malalas, John. The Chronicle of John Malalas. Translated by Elizabeth Jeffreys, Michael Jeffreys, Roger Scott, and Brian Croke. Melbourne: Australian Association for Byzantine Studies, 1986.Google Scholar
  113. Mann, M.E. et al. “Underestimation of Volcanic Cooling in Tree-Ring Based Reconstructions of Hemispheric Temperatures.” Nature Geoscience 5 (2012): 202–05.Google Scholar
  114. Marcellinus Comes. The Chronicle of Marcellinus: A Translation and Commentary. Translated by Brian Croke. Sydney: Australian Association for Byzantine Studies, 1995.Google Scholar
  115. Masson-Delmotte, V. et al. “Information from Paleoclimate Archives.” In Climate Change 2013: The Physical Science Basis: Working Group I Contribution to the Fifth Assessment Report of the Intergovernmental Panel on Climate Change, 383–464. New York: Cambridge University Press, 2014.Google Scholar
  116. McCormick, Michael. “Rats, Communications, and Plague: Toward an Ancient and Medieval Ecological History.” Journal of Interdisciplinary History 34 (2003): 1–25.Google Scholar
  117. McCormick, Michael. “Toward a Molecular History of the Justinianic Pandemic.” In Plague and the End of Antiquity: The Pandemic of 541–750, edited by L. Little, 290–312. New York: Cambridge University Press, 2007a.Google Scholar
  118. McCormick, Michael. “Volcanoes and the Climate Forcing of Carolignian Europe, A.D. 750–950.” Speculum 82 (2007b): 865–96.Google Scholar
  119. McCormick, Michael. “What Climate Science, Ausonius, Nile Floods, Rye Farming, and Thatched Roofs Tell Us about the Environmental History of the Roman Empire.” In The Ancient Mediterranean Environment between Science and History, edited by William V. Harris, 61–88. Leiden; Boston: Brill, 2013.Google Scholar
  120. McCormick, Michael et al. “Climate Change During and After the Roman Empire: Reconstructing the Past from Scientific and Historical Evidence.” Journal of Interdisciplinary History 43 (2012): 169–220.Google Scholar
  121. McKee, C.O. et al. “A Remarkable Pulse of Large-Scale Volcanism on New Britain Island, Papua New Guinea.” Bulletin of Volcanology 73 (2011): 27–37.Google Scholar
  122. McKee, C.O. et al. “A Revised Age of AD 667–699 for the Latest Major Eruption at Rabaul.” Bulletin of Volcanology 77 (2015): 65.Google Scholar
  123. McMichael, A. “Extreme Weather Events and Infectious Disease Outbreaks.” Virulence 6 (2015): 543–47.Google Scholar
  124. Medina-Elizalde, M. et al. “High Resolution Stalagmite Climate Record from the Yucatán Peninsula Spanning the Maya Terminal Classic Period.” Earth and Science Planetary Letters 298 (2010): 255–62.Google Scholar
  125. Mehringer, P. et al. “Age and Extent of the Ilopango TBJ Tephra Inferred from a Holocene Chronostratigraphic Reference Section, Lago de Yojoa, Honduras.” Quaternary Research 63 (2005): 199–205.Google Scholar
  126. Michael the Syrian. Chronique de Michel Le Syrien Patriarche Jacobite d’Antioche: 1166–1199. Translated by J.B. Chabot, 1901.Google Scholar
  127. Moorhead, John. The Roman Empire Divided, 400–700. Harlow: Longman, 2001.Google Scholar
  128. Morelli, G. et al. “Yersinia Pestis Genome Sequencing Identifies Patterns of Global Phylogenetic Diversity.” Nature Genetics 42 (2010): 1140–43.Google Scholar
  129. Moreno, P.I. et al. “Southern Annular Mode-Like Changes in Southwestern Patagonia at Centennial Timescales Over the Last Three Millennia.” Nature Communications 5 (2014): 4735.Google Scholar
  130. Motizuki, Y. et al. “Dating of a Dome Fuji (Antarctica) Shallow Ice Core by Volcanic Signal Synchronization with B32 and EDML1 Chronologies.” Cryosphere Discussions 8 (2014): 769–804.Google Scholar
  131. Mrgić, J. “Ash Fell from the Skies to the Earth: The Eruption of the Vesuvius in 1631 AD and the Balkan Lands.” Balcanica 35 (2004): 223–38.Google Scholar
  132. Napier, W. “The Role of Giant Comets in Mass Extinctions.” Geological Society of America Special Papers 505 (2014).Google Scholar
  133. Nash, David et al. “African Hydroclimatic Variability During the Last 2000 Years.” Quaternary Science Reviews 154 (2016): 1–22.Google Scholar
  134. Newfield, Timothy P. “The Causation, Contours and Frequency of Food Shortages in Carolingian Europe, c.750–c.950.” In Crisis en la Edad Media: Modelos, Explicaciones y Representaciones, edited by Pere Benito i Monclús, 117–72. Barcelona: Editorial Milenio Lleida, 2013.Google Scholar
  135. Newfield, Timothy P. “Malaria and Malaria-Like Disease in the Early Middle Ages.” Early Medieval Europe 25 (2017): 251–300.Google Scholar
  136. Nooren, C.A.M. et al. “Tephrochronological Evidence for the Late Holocene Eruption History of El Chichón, Mexico.” Geofisica Internacional 48 (2009): 97–112.Google Scholar
  137. Nooren, Kees et al. “Explosive Eruption of El Chichón Volcano (Mexico) Disrupted 6th Century Maya Civilization and Contributed to Global Cooling.” Geology 45 (2017): 175–78.Google Scholar
  138. Nunn, Patrick D. Climate, Environment and Society in the Pacific during the Last Millennium. Amsterdam: Elsevier, 2007.Google Scholar
  139. Oppenheimer, C., and D. Pyle. “Volcanoes.” In Physical Geography of the Mediterranean, edited by J. Woodward. New York: Oxford, 2009.Google Scholar
  140. Oslisly, Richard et al. “Climatic and Cultural Changes in the West Congo Basin Forests Over the Past 5000 Years.” Phil. Transactions of the Royal Society B 368 (2013): 20120304.Google Scholar
  141. Pages 2k Consortium. “Continental-Scale Temperature Variability During the Past Two Millennia.” Nature Geoscience 6 (2013): 339–46.Google Scholar
  142. Parker, D.E. “Frost Rings in Trees and Volcanic Eruptions.” Nature 313 (1985): 160–61.Google Scholar
  143. Parry, M.L., and T.R. Carter. “The Effect of Climatic Variations on Agricultural Risk.” Climatic Change 7 (1985): 95–110.Google Scholar
  144. Pearson, C. et al. “Dendroarchaeology of the Mid-First Millennium AD in Constantinople.” Journal of Archaeological Science 39 (2012): 3402–14.Google Scholar
  145. Pettersson, O. Climatic Variation in Historic and Prehistoric Time. Göteborg: W. Zachrissons, 1914.Google Scholar
  146. Plummer, C.T. et al. “An Independently Dated 2000-Yr Record from Law Dome, East Antarctica, Including a New Perspective on the 1450s CE Eruption of Kuwae, Vanuatu.” Climate of the Past 8 (2012): 1929–40.Google Scholar
  147. Power, Timothy. The Red Sea from Byzantium to the Caliphate: AD 500–1000. Cairo: American University in Cairo, 2012.Google Scholar
  148. Price, T.D. Ancient Scandinavia: An Archaeological History from the First Humans to the Vikings. New York: Oxford University Press, 2015.Google Scholar
  149. Principe, C. et al. “Chronology of Vesuvius’ Activity from A.D. 79 to 1631 Based on Archaeomagnetism of Lavas and Historical Sources.” Bulletin of Volcanology 66 (2004): 703–24.Google Scholar
  150. Procopius. History of the Wars II. Translated by H.B. Dewing. Cambridge, MA: Harvard University Press, 1916.Google Scholar
  151. Procopius. History of the Wars III. Translated by H.B. Dewing. Cambridge, MA: Harvard University Press, 1919.Google Scholar
  152. Pseudo-Dionysius of Tel-Mahre. Translated by W. Witakowski. Liverpool: Senate House, 1996.Google Scholar
  153. Pseudo-Zachariah Rhetor. Chronicle. Translated by R. Phenix and B. C. Horn. Liverpool University Press, 2011.Google Scholar
  154. Raible, C. et al. “Tambora 1815 as a Test Case for High Impact Volcanic Eruptions: Earth System Effects.” WIRES Climate Change 7 (2016): 569–89.Google Scholar
  155. Rampino, M. “Volcanic Winters.” Annual Review of Earth and Planetary Sciences 16 (1988): 73–99.Google Scholar
  156. Rigby, Emma et al. “A Comet Impact in AD 536?” Astronomy and Geophysics 45 (2004): 1.23–1.26.Google Scholar
  157. Rosenmeier, M. et al. “A 4000-Year Lacustrine Record of Environmental Change in the Southern Maya Lowlands, Petén, Guatemala.” Quaternary Research 57 (2002): 183–90.Google Scholar
  158. Rosi, M., and R. Santacroce. “The A.D. 472 ‘Pollena’ Eruption: Volcanological and Petrological Data for This Poorly-Known, Plinian-Type at Vesuvius.” Journal of Volcanology and Geothermal Research 17 (1983): 249–71.Google Scholar
  159. Sallares, R. “Ecology, Evolution, and Epidemiology of Plague.” In Plague and the End of Antiquity: The Pandemic of 541–750, edited by L. Little, 231–89. New York: Cambridge University Press, 2007.Google Scholar
  160. Sarris, Peter. “The Justinianic Plague: Origins and Effects.” Continuity and Change 17 (2002): 169–82.Google Scholar
  161. Schmid, Boris V. et al. “Climate-Driven Introduction of the Black Death and Successive Plague Reintroductions into Europe.” Proceedings of the National Academy of Sciences 112 (2015): 3020–25.Google Scholar
  162. Schmincke, H.-U. “Volcanoes and Climate.” In Volcanism, edited by H.-U. Schmincke, 259–72. New York: Springer, 2004.Google Scholar
  163. Schneider, P. “The So-Called Confusion Between India and Ethiopia: The Eastern and Southern Edges of the Inhabited World from the Greco-Roman Perspective.” In Brill’s Companion to Ancient Geography: The Inhabited World in Greek and Roman Tradition, edited by S. Bianchetti, M. Cataudella, and H.J. Gehrke, 184–202. Boston: Brill, 2015.Google Scholar
  164. Seifert, Lisa et al. “Genotyping Yersinia Pestis in Historical Plague: Evidence for Long-Term Persistence of Y. Pestis in Europe from the 14th to the 17th Century.” PLoS ONE 11 (2016): e0145194.Google Scholar
  165. Severi, M. et al. “Synchronisation of the EDML and EDC Ice Cores for the Last 52 Kyr by Volcanic Signature Matching.” Climate of the Past 3 (2007): 367–74.Google Scholar
  166. Sigl, Michael et al. “A New Bipolar Ice Core Record of Volcanism from WAIS Divide and NEEM and Implications for Climate Forcing of the Last 2000 Years.” Journal of Geophysical Research: Atmospheres 118 (2013): 1151–69.Google Scholar
  167. Sigl, Michael et al. “Insights from Antarctica on Volcanic Forcing During the Common Era.” Nature Climate Change 4 (2014): 693–97.Google Scholar
  168. Sigl, Michael et al. “Timing and Climate Forcing of Volcanic Eruptions for the Past 2500 Years.” Nature 523 (2015): 543–49.Google Scholar
  169. Simarski, L. Volcanism and Climate Change. Washington, DC: American Geophysical Union Special Report, 1992.Google Scholar
  170. Smit, B., and J. Wandel. “Adaptation, Adaptive Capacity and Vulnerability.” Global Environmental Change 16 (2006): 282–92.Google Scholar
  171. Soda, Tstutomu. “Explosive Activities of Haruna Volcano and Their Impacts on Human Life in the Sixth Century AD.” Geographical Reports of Tokyo Metropolitan University 31 (1996): 37–52.Google Scholar
  172. Stargardt, J. “Irrigation in South Thailand as a Coping Strategy Against Climate Change: Past and Present.” In Environmental and Climate Change in South and Southeast Asia: How Are Local Cultures Coping?, edited by B. Schuler, 105–37. Leiden: Brill, 2014.Google Scholar
  173. Stathakopoulos, Dionysios. “Reconstructing the Climate of the Byzantine World: State of the Problem and Case Studies.” In People and Nature in Historical Perspective, edited by Péter Szábo and József Laszlovszky, 247–61. Budapest: Central European University, 2003.Google Scholar
  174. Stathakopoulos, Dionysios. Famine and Pestilence in the Late Roman and Early Byzantine Empire. Burlington, VT: Ashgate, 2004.Google Scholar
  175. Stathakopoulos, Dionysios. “Crime and Punishment: The Plague in the Byzantine Empire, 541–750.” In Plague and the End of Antiquity, edited by Lester K. Little, 99–118. New York: Cambridge University Press, 2007.Google Scholar
  176. Steig E. et al. “Recent Climate and Ice-Sheet Changes in West Antarctica Compared with Past 2000 Years.” Nature Geoscience 6 (2013): 372–75.Google Scholar
  177. Stothers, Richard B. “Mystery Cloud of AD 536.” Nature 307 (1984): 344–45Google Scholar
  178. Stothers, Richard B. “Volcanic Dry Fogs, Climate Cooling, and Plague Pandemics in Europe and the Middle East.” Climatic Change 42 (1999): 713–23.Google Scholar
  179. Stothers, Richard B. “Climatic and Demographic Consequences of the Massive Volcanic Eruption of 1258.” Climatic Change 45 (2000): 361–64.Google Scholar
  180. Stothers, Richard B. “Cloudy and Clear Stratospheres Before A.D.1000 Inferred from Written Sources.” Journal of Geophysical Research: Atmospheres 107 (2002): D23.Google Scholar
  181. Stothers, Richard B., and M.R. Rampino. “Historic Volcanism, European Dry Fogs, and Greenland Acid Precipitation, 1500 B.C. to A.D. 1500.” Science 222 (1983a): 411–13.Google Scholar
  182. Stothers, Richard B., and M.R. Rampino “Volcanic Eruptions in the Mediterranean Before A.D. 630 From Written and Archaeological Sources.” Journal of Geophysical Research 88 (1983b): 6357–71.Google Scholar
  183. Suzuki, Y., and S. Nakada. “Remobilization of Highly Crystalline Felsic Magma by Injection of Mafic Magma: Constraints from the Middle Sixth Century Eruption at Haruna Volcano, Honshu, Japan.” Journal of Petrology 48 (2007): 1543–67.Google Scholar
  184. Tan, M. et al. “Cyclic Rapid Warming on Centennial-Scale Revealed by a 2650-Year Stalagmite Record of Warm Season Temperature.” Geophysical Research Letters 30 (2003): 1617.Google Scholar
  185. The Koguryo Annals of the Samguk Sagi. Translated by E. Shultz. Seongnam-si, Korea: Academy of Korean Studies Press, 2011.Google Scholar
  186. The Silla Annals of the Samguk Sagi. Translated by E. Shultz. Seongnam-si, Korea: Academy of Korean Studies Press, 2012.Google Scholar
  187. Thompson, L. et al. “A 1500-Year Record of Tropical Precipitation in Ice Cores from the Quelccaya Ice Cap, Peru.” Science 229 (1985): 971–73.Google Scholar
  188. Thompson, L. et al. “Glacial Records of Global Climate: A 1500-Year Tropical Ice Core Record of Climate.” Human Ecology 22 (1994): 83–95.Google Scholar
  189. Tilling, R.I. et al. “Holocene Eruptive Activity of El Chichón, Chiapas, Mexico.” Science 224 (1984): 747–50.Google Scholar
  190. Timmreck, C. et al. “Limited Temperature Response to the Very Large AD 1258 Volcanic Eruption.” Geophysical Research Letters 36 (2009): L21708.Google Scholar
  191. Toohey, M. et al. “Climatic and Societal Impacts of a Volcanic Double Event at the Dawn of the Middle Ages.” Climatic Change 136 (2016): 401–12.Google Scholar
  192. Traufetter, F. et al. “Spatio-Temporal Variability in Volcanic Sulphate Deposition Over the Past 2 kyr in Snow Pits and Fir Cones from Amundsenisen, Antarctica.” Journal of Glaciology 50 (2004): 137–46.Google Scholar
  193. Turner, B.L., and Jeremy A. Sabloff. “Classic Period Collapse of the Central Maya Lowlands: Insights About Human–Environment Relationships for Sustainability.” Proceedings of the National Academy of Sciences 109 (2012): 13908–14.Google Scholar
  194. Tvauri, A. “The Impact of the Climate Catastrophe of 536–537 AD in Estonia and Neighbouring Areas.” Estonian Journal of Archaeology 18 (2014): 30–56.Google Scholar
  195. Van Bellen, Simon et al. “Late-Holocene Climate Dynamics Recorded in the Peat Bogs of Tierra Del Fuego, South America.” The Holocene 26 (2015): 489–501.Google Scholar
  196. Wagner, D.M. et al. “Yersinia Pestis and the Plague of Justinian 541–543 AD: A Genomic Analysis.” The Lancet 14 (2014): 319–26.Google Scholar
  197. Wahl, David et al. “An 8700 Year Paleoclimate Reconstruction from the Southern Maya Lowlands.” Quaternary Science Reviews 103 (2014): 19–25.Google Scholar
  198. Webster, J.W. et al. “Stalagmite Evidence from Belize Indicating Significant Droughts at the Time of the Preclassic Abandonment, the Maya Hiatus, and the Classic Maya Collapse.” Palaeogeography, Palaeoclimatology, Palaeoecology 250 (2007): 1–17.Google Scholar
  199. Weisburd, Stefi. “Excavating Words: A Geological Tool.” Science News 127 (1985): 91–94.Google Scholar
  200. Wickham, Chris. Framing the Early Middle Ages: Europe and the Mediterranean 400–800. New York: Oxford University Press, 2005.Google Scholar
  201. Widgren, M. “Climate and Causation in the Swedish Iron Age: Learning from the Present to Understand the Past.” Danish Journal of Geography 112 (2012): 126–34.Google Scholar
  202. Williams, J., ed. Annales Cambriae. Wiesbaden: Kraus Reprint Ltd., 1965.Google Scholar
  203. Zhang, P. et al. “A Test of Climate, Sun, and Culture Relationships from an 1810-Year Chinese Cave Record.” Science 322 (2008): 940–42.Google Scholar
  204. Zielinski, G.A. “Stratospheric Loading and Optimal Depth Estimates of Explosive Volcanism Over the Last 2100 Years Derived from the Greenland Ice Sheet Project 2 Ice Core.” Journal of Geophysical Research: Atmospheres 100 (1995): 20937–55.Google Scholar

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© The Author(s) 2018

Authors and Affiliations

  • Timothy P. Newfield
    • 1
  1. 1.Departments of History and BiologyGeorgetown UniversityWashington, DCUSA

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