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Late Quaternary micromammals and the precipitation history of the southern Cape, South Africa

Published online by Cambridge University Press:  19 December 2018

J. Tyler Faith ,
Brian M. Chase  and
D. Margaret Avery
J. Tyler Faith*
Affiliation:
Natural History Museum of Utah & Department of Anthropology, University of Utah, Salt Lake City, Utah 84108, USA
Brian M. Chase
Affiliation:
Centre National de la Recherche Scientifique, UMR 5554, Institut des Sciences de l’Evolution de Montpellier, Université Montpellier, 34095 Montpellier, France
D. Margaret Avery
Affiliation:
Iziko South African Museum, P.O. Box 61, Cape Town, 8000South Africa
*
*Corresponding author at: Natural History Museum of Utah & Department of Anthropology, University of Utah, Salt Lake City, Utah 84108, USA. E-mail: [email protected] (J. Tyler Faith).
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Abstract

The southern Cape of South Africa is important to understanding regional climate because it straddles the transition between the winter and summer rainfall zones. We examine late Quaternary changes in rainfall seasonality and aridity through analysis of micromammal assemblages from three sites: Boomplaas Cave and Nelson Bay Cave in the aseasonal rainfall zone and Byneskranskop 1 in the winter rainfall zone. Our interpretation is based on analysis of 123 modern micromammal assemblages accumulated by barn owls (Tyto alba), which empirically links species composition to climate. The Pleistocene record (∼65 to 12 ka) from Boomplaas Cave, together with the last glacial maximum (LGM) samples from Nelson Bay Cave, indicates enhanced winter rainfall, especially during the LGM. Boomplaas Cave documents progressive aridification from the LGM to the earliest Holocene, followed by a return to moderately humid conditions through the Holocene. Byneskranskop 1 indicates a dominance of winter rains over the last 17 ka and a shift from an arid middle Holocene to a humid later Holocene. Agreement between the micromammal record and other local and regional proxies reinforces the potential of southern African micromammal assemblages as paleoclimate indicators.

Keywords

AridityHoloceneLast glacial maximumMammalsPaleoclimatePrecipitationSeasonality
Type
Research Article
Information
Quaternary Research , Volume 91 , Issue 2 , March 2019 , pp. 848 - 860
Copyright
Copyright © University of Washington. Published by Cambridge University Press, 2018 

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References

REFERENCES

Andrews, P., 1990. Owls, Caves, and Fossils. University of Chicago Press, Chicago.Google Scholar
Avery, D.M., 1982. Micromammals as palaeoenvironmental indicators and an interpretation of the late Quaternary in the southern Cape Province, South Africa. Annals of the South African Museum 85, 183–374.Google Scholar
Avery, D.M., 1983. Palaeoenvironmental implications of the small Quaternary mammals of the fynbos region. In: Deacon, H.J., Hendey, Q.B., Lambrechts, J.J.N. (Eds.), Fynbos Palaeoecology: A Preliminary Synthesis. South African National Scientific Programmes Report No. 75. Mills Litho, Cape Town, pp. 139–155.Google Scholar
Avery, D.M., 1987. Late Pleistocene coastal environment of the southern Cape Province of South Africa: micromammals from Klasies River Mouth. Journal of Archaeological Science 14, 405–421.Google Scholar
Avery, D.M., 1990. Holocene climatic change in southern Africa: the contribution of micromammals to its study. South African Journal of Science 86, 407–412.Google Scholar
Avery, D.M., 1992. Ecological data on micromammals collected by barn owls Tyto alba in the West Coast National Park, South Africa. Israel Journal of Zoology 38, 385–397.Google Scholar
Avery, D.M., 1993. Last Interglacial and Holocene altithermal environments in South Africa and Namibia: micromammalian evidence. Palaeogeography, Palaeoclimatology, Palaeoecology 101, 221–228.Google Scholar
Avery, D.M., 1999. A preliminary assessment of the relationship between trophic variability in southern African Barn owls Tyto alba and climate. Ostrich 70, 179–186.Google Scholar
Avery, D.M., 2004. Size variation in the common molerat Cryptomys hottentotus from southern Africa and its potential for palaeoenvironmental reconstruction. Journal of Archaeological Science 31, 273–282.Google Scholar
Avery, D.M., 2007. Micromammals as palaeoenvironmental indicators of the southern African Quaternary. Transactions of the Royal Society of South Africa 62, 17–23.Google Scholar
Bar-Matthews, M., Marean, C.W., Jacobs, Z., Karkanas, P., Fisher, E.C., Herries, A.I.R., Brown, K., et al., 2010. A high resolution and continuous isotopic speleothem record of paleoclimate and paleoenvironment from 90 to 53 ka from Pinnacle Point on the south coast of South Africa. Quaternary Science Reviews 29, 2131–2145.Google Scholar
Birks, H.J.B., 1995. Quantitative palaeoenvironmental reconstructions. In: Maddy, D., Brew, J.S. (Eds.), Statistical Modelling of Quaternary Science Data. Technical Guide 5. Quaternary Research Association, Cambridge, UK, pp. 161–254.Google Scholar
Bronk Ramsey, C., 2009. Bayesian analysis of radiocarbon dates. Radiocarbon 51, 337–360.Google Scholar
Bronk Ramsey, C., 2013. OxCal 4.3 (accessed September 2017). http://c14.arch.ox.ac.uk/Google Scholar
Campbell, T.L., Lewis, P.J., Thies, M.L., Williams, J.K., 2012. A Geographic Information Systems (GIS)-based analysis of modern South African rodent distributions, habitat use, and environmental tolerances. Ecology and Evolution 2, 2881–2894.Google Scholar
Campbell, T.L., Lewis, P.J., Williams, J.K., 2011. Analysis of the modern distribution of South African Gerbilliscus (Rodentia: Gerbillinae) with implications for Plio-Pleistocene palaeoenvironmental reconstruction. South African Journal of Science 107, 497.Google Scholar
Chase, B.M., Boom, A., Carr, A.S., Carré, M., Chevalier, M., Meadows, M.E., Pedro, J.B., Stager, J.C., Reimer, P.J., 2015a. Evolving southwest African response to abrupt deglacial North Atlantic climate change events. Quaternary Science Reviews 121, 132–136.Google Scholar
Chase, B.M., Boom, A., Carr, A.S., Meadows, M.E., Reimer, P.J., 2013. Holocene climate change in southernmost South Africa: rock hyrax middens record shifts in the southern westerlies. Quaternary Science Reviews 82, 199–205.Google Scholar
Chase, B.M., Chevalier, M., Boom, A., Carr, A.S., 2017. The dynamic relationship between temperate and tropical circulation systems across South Africa since the last glacial maximum. Quaternary Science Reviews 174, 54–62.Google Scholar
Chase, B.M., Faith, J.T., Mackay, A., Chevalier, M., Carr, A.S., Boom, A., Lim, S., Reimer, P.J., 2018. Climatic controls on Later Stone Age human adaptation in Africa’s southern Cape. Journal of Human Evolution 114, 35–44.Google Scholar
Chase, B.M., Lim, S., Chevalier, M., Boom, A., Carr, A.S., Meadows, M.E., Reimer, P.J., 2015b. Influence of tropical easterlies in southern Africa’s winter rainfall zone during the Holocene. Quaternary Science Reviews 107, 138–148.Google Scholar
Chase, B.M., Meadows, M.E., 2007. Late Quaternary dynamics of southern Africa’s winter rainfall zone. Earth-Science Reviews 84, 103–138.Google Scholar
Chase, B.M., Quick, L.J., 2018. Influence of Agulhas forcing of climate change in South Africa’s southern Cape. Quaternary Research (in press). https://doi.org/10.1017/qua.2018.57Google Scholar
Chase, B.M., Thomas, D.S.G., 2007. Multiphase late Quaternary aeolian sediment accumulation in western South Africa: timing and relationship to palaeoclimatic changes inferred from the marine record. Quaternary International 166, 29–41.Google Scholar
Chevalier, M., Chase, B.M., 2015. Southeast African records reveal a coherent shift from high- to low-latitude forcing mechanisms along the east African margin across last glacial–interglacial transition. Quaternary Science Reviews 125, 117–130.Google Scholar
Chevalier, M., Chase, B.M., 2016. Determining the drivers of long-term aridity variability: a southern African case study. Journal of Quaternary Science 31, 143–151.Google Scholar
Clark, P.U., Dyke, A.S., Shakun, J.D., Carlson, A.E., Clark, J., Wohlfarth, B., Mitrovica, J.X., Hostetler, S.W., McCabe, A.M., 2009. The Last Glacial Maximum. Science 325, 710–714.Google Scholar
Cockcroft, M.J., Wilkinson, M.J., Tyson, P.D., 1987. The application of a present-day climate model to the Late Quaternary in southern Africa. Climatic Change 10, 161–181.Google Scholar
Copeland, S.R., Cawthra, H.C., Fisher, E.C., Lee-Thorp, J.A., Cowling, R.M., le Roux, P.J., Hodgkins, J., Marean, C.W., 2016. Strontium isotope investigation of ungulate movement patterns on the Pleistocene Paleo-Agulhas Plain of the Greater Cape Floristic Region, South Africa. Quaternary Science Reviews 141, 65–84.Google Scholar
Deacon, H.J., 1979. Excavations at Boomplaas cave - a sequence through the Upper Pleistocene and Holocene in South Africa. World Archaeology 10, 241–257.Google Scholar
Deacon, H.J., Deacon, J., Scholtz, A., Thackeray, J.F., Brink, J.S., 1984. Correlation of palaeoenvironmental data from the Late Pleistocene and Holocene deposits at Boomplaas Cave, southern Cape. In: Vogel, J.C. (Ed.), Late Cainozoic Palaeoclimates of the Southern Hemisphere. Balkema, Rotterdam, the Netherlands, pp. 339–351.Google Scholar
Deacon, J., 1984. The Later Stone Age of Southernmost Africa. British Archaeological Reports, International Series 213. British Archaeological Reports, Oxford, UK.Google Scholar
Deacon, J., Lancaster, N., 1988. Late Quaternary Palaeoenvironments of Southern Africa. Oxford University Press, New York.Google Scholar
Faith, J.T., 2013a. Taphonomic and paleoecological change in the large mammal sequence from Boomplaas Cave, Western Cape, South Africa. Journal of Human Evolution 65, 715–730.Google Scholar
Faith, J.T., 2013b. Ungulate diversity and precipitation history since the Last Glacial Maximum in the Western Cape, South Africa. Quaternary Science Reviews 68, 191–199.Google Scholar
Faith, J.T., Thompson, J.C., 2013. Fossil evidence for seasonal calving and migration of extinct blue antelope (Hippotragus leucophaeus) in southern Africa. Journal of Biogeography 40, 2108–2118.Google Scholar
Fernández-Jalvo, Y., Andrews, P., Denys, C., Sesé, C., Stoetzel, E., Marin-Monfort, E., Pesquero, D., 2016. Taphonomy for taxonomists: implications of predation in small mammal studies. Quaternary Science Reviews 139, 138–157.Google Scholar
Fick, S.E., Hijmans, R.J., 2017. WorldClim 2: new 1-km spatial resolution climate surfaces for global land areas. International Journal of Climatology 37, 4302–4315.Google Scholar
Fischer, H., Fundel, F., Ruth, U., Twarloh, B., Wegner, A., Udisti, R., Becagli, S., et al., 2007. Reconstruction of millennial changes in dust emission, transport and regional sea ice coverage using the deep EPICA ice cores from the Atlantic and Indian Ocean sector of Antarctica. Earth and Planetary Science Letters 260, 340–354.Google Scholar
Fisher, E.C., Bar-Matthews, M., Jerardino, A., Marean, C.W., 2010. Middle and Late Pleistocene paleoscape modeling along the southern coast of South Africa. Quaternary Science Reviews 29, 1382–1398.Google Scholar
Grayson, D.K., 1984. Quantitative Zooarchaeology. Academic Press, Orlando, Florida.Google Scholar
Heine, K., 1982. The main stages of the late Quaternary evolution of the Kalahari region, southern Africa. Palaeoecology of Africa 15, 53–76.Google Scholar
Hijmans, R.J., Cameron, S.E., Parra, J.L., Jones, P.G., Jarvis, A., 2005. Very high resolution interpolated climate surfaces for global land areas. International Journal of Climatology 25, 1965–1978.Google Scholar
Hogg, A.G., Hua, Q., Blackwell, P.G., Niu, M., Buck, C.E., Guilderson, T.P., Heaton, T.J., et al., 2013. SHCal13 Southern Hemisphere calibration, 0–50,000 years cal BP. Radiocarbon 55, 1889–1903.Google Scholar
Inskeep, R.R., 1987. Nelson Bay Cave, Cape Province, South Africa: the Holocene levels. British Archaeological Reports International Series 357. British Archaeological Reports, Oxford, UK.Google Scholar
Klein, R.G., 1972. Preliminary report on the July through September 1970 excavations at Nelson Bay Cave, Plettenberg Bay (Cape Province, South Africa). Palaeoecology of Africa 6, 177–208.Google Scholar
Klein, R.G., 1983. Palaeoenvironmental implications of Quaternary large mammals in the fynbos region. In: Deacon, H.J., Hendey, Q.B., Lambrechts, J.J.N. (Eds.), Fynbos Palaeoecology: A Preliminary Synthesis. South African National Scientific Programmes Report No. 75. Mills Litho, Cape Town, pp. 116–138.Google Scholar
Klein, R.G., 1991. Size variation in Cape dune molerat (Bathyergus suillus) and late Quaternary climatic change in the southwestern Cape Province, South Africa. Quaternary Research 36, 243–256.Google Scholar
Klein, R.G., Cruz-Uribe, K., 2016. Large mammal and tortoise bones from Elands bay Cave (South Africa): implications for Later Stone Age environment and ecology. South African Humanities 29, 259–282.Google Scholar
Le, J., Shackleton, N.J., 1994. Reconstruction paleoenvironment by transfer function: model evaluation with simulated data. Marine Micropaleontology 24, 187–199.Google Scholar
Legendre, P., Legendre, L., 2012. Numerical Ecology. Elsevier, New York.Google Scholar
Loftus, E., Sealy, J., Lee-Thorp, J., 2016. New radiocarbon dates and Bayesian models for Nelson Bay Cave and Byneskranskop 1: implications for the South African Later Stone Age sequence. Radiocarbon 58, 365–381.Google Scholar
Lyman, R.L., 2008. Quantitative Paleozoology. Cambridge University Press, Cambridge.Google Scholar
Lyman, R.L., 2012. The influence of screen mesh size, and size and shape of rodent teeth on recovery. Journal of Archaeological Science 39, 1854–1861.Google Scholar
Lyman, R.L., 2017. Paleoenvironmental reconstruction from faunal remains: ecological basics and analytical assumptions. Journal of Archaeological Research 25, 315–371.Google Scholar
Marean, C.W., 2010. Pinnacle Point Cave 13B (Western Cape Province, South Africa) in context: the Capr Floral kingdom, shellfish, and modern human origins. Journal of Human Evolution 59, 425–443.Google Scholar
Marean, C.W., Cawthra, H.C., Cowling, R.M., Esler, K.J., Fisher, E., Milewski, A., Potts, A.J., Singels, E., De Vynck, J., 2014. Stone Age people in a changing South African Greater Cape Floristic Region. In: Allsopp, N., Colville, J.F., Verboom, G.A. (Eds.), Fynbos: Ecology, Evolution, and Conservation of a Megadiverse Region. Oxford University Press, Oxford, pp. 164–199.Google Scholar
Matthews, T., Rector, A.L., Jacobs, Z., Herries, A.I.R., Marean, C.W., 2011. Environmental implications of micromammals accumulated close to the MIS 6 to MIS 5 transition at Pinnacle Point Cave 9 (Mossel Bay, Western Cape Province, South Africa). Paleogeography, Paleoclimatology, Paleoecology 302, 213–229.Google Scholar
Meadows, M.E., Baxter, A.J., 2001. Holocene vegetation history and palaeoenvironments at Klaarfontein Springs, Western Cape, South Africa. Holocene 11, 699–706.Google Scholar
Meadows, M.E., Baxter, A.J., Parkington, J., 1996. Late Holocene environments at Verlorenvlei, Western Cape Province, South Africa. Quaternary International 33, 81–95.Google Scholar
Nel, T.H., Henshilwood, C.S., 2016. The small mammal sequence from the c. 76–72 ka Still Bay levels at Blombos Cave, South Africa – taphonomic and palaeoecological implications for human behaviour. PLoS ONE 11, e0159817.Google Scholar
Nel, T.H., Wurz, S., Henshilwood, C.S., 2018. Small mammals from Marine Isotope Stage 5 at Klasies River, South Africa—reconstructing the local palaeoenvironment. Quaternary International 471, 6–20.Google Scholar
Pargeter, J., Loftus, E., Mackay, A., Mitchell, P., Stewart, B., 2018. New ages from Boomplaas Cave, South Africa, provide increased resolution on late/terminal Pleistocene human behavioural variability. Azania: Archaeological Research in Africa 53, 156–184.Google Scholar
Partridge, T.C., Avery, D.M., Botha, G.A., Brink, J.S., Deacon, J., Herbert, R.S., Maud, R.R., et al., 1990. Late Pleistocene and Holocene climatic change in southern Africa. South African Journal of Science 86, 302–306.Google Scholar
Quick, L.J., Carr, A.S., Meadows, M.E., Boom, A., Bateman, M.D., Roberts, D.L., Reimer, P.J., Chase, B.M., 2015. A late Pleistocene-Holocene multi-proxy record of palaeoenvironmental change from Still Bay, southern Cape Coast, South Africa. Journal of Quaternary Science 30, 870–885.Google Scholar
Quick, L.J., Chase, B.M., Wündsch, M., Kirsten, K.L., Cheavlier, M., Mäusbacher, R., Meadows, M.E., Haberzettl, T., 2018. A high-resolution record of Holocene climate and vegetation dynamics from the southern Cape coast of South Africa: pollen and microcharcoal evidence from Eilandvlei. Journal of Quaternary Science 33, 487–500.Google Scholar
Quick, L.J., Meadows, M.E., Bateman, M.D., Kirsten, K.L., Mäusbacher, R., Haberzettle, T., Chase, B.M., 2016. Vegetation and climate dynamics during the last glacial period in the fynbos-afrotemperate forest ecotone, southern Cape, South Africa. Quaternary International 404B, 136–149.Google Scholar
Reed, D.N., 2005. Taphonomic implications of roosting behavior and trophic habits in two species of African owl. Journal of Archaeological Science 32, 1669–1676.Google Scholar
Scholtz, A., 1986. Palynological and Palaeobotanical Studies in the Southern Cape. Master’s thesis, University of Stellenbosch, Stellenbosch, South Africa.Google Scholar
Schweitzer, F.R., Wilson, M.L., 1982. Byneskranskop 1, a late Quaternary living site in the southern Cape Province, South Africa. Annals of the South African Museum 88, 1–203.Google Scholar
Scott, L., Woodborne, S., 2007a. Pollen analysis and dating of late Quaternary faecal deposits (hyraceum) in the Cederberg, Western Cape, South Africa. Review of Paleobotany and Palynology 144, 123–134.Google Scholar
Scott, L., Woodborne, S., 2007b. Vegetation history inferred from pollen in Late Quaternary faecal deposits (hyraceum) in the Cape winter-rain region and its bearing on past climates in South Africa. Quaternary Science Reviews 26, 941–953.Google Scholar
Sealy, J., Lee-Thorp, J., Loftus, E., Faith, J.T., Marean, C.W., 2016. Late Quaternary environmental change in the Southern Cape, South Africa, from stable carbon and oxygen isotopes in faunal tooth enamel from Boomplaas Cave. Journal of Quaternary Science 31, 919–927.Google Scholar
Sealy, J.C., 1996. Seasonality of rainfall around the last glacial maximum as reconstructed from carbon isotope analyses of animal bones from Nelson Bay Cave. South African Journal of Science 92, 441–444.Google Scholar
Stuut, J.-B.W., Crosta, X., van der Borg, K., Schneider, R.R., 2004. On the relationship between Antarctic sea ice and southwestern African climate during the late Quaternary. Geology 32, 909–912.Google Scholar
Talma, A.S., Vogel, J.C., 1992. Late Quaternary palaeotemperatures derived from a speleothem from Cango Caves, Cape Province, South Africa. Quaternary Research 37, 203–213.Google Scholar
Taylor, I., 1994. Barn Owls. Cambridge University Press, Cambridge.Google Scholar
Thackeray, J.F., 1987. Late Quaternary environmental changes inferred from small mammalian fauna, southern Africa. Climatic Change 10, 285–305.Google Scholar
Thackeray, J.F., 1990. Temperature indices from late Quaternary sequences in South Africa: comparisons with the Vostok core. South African Geographic Journal 72, 47–49.Google Scholar
Thackeray, J.F., Fitchett, J.M., 2016. Rainfall seasonality captured in micromammalian fauna in Late Quaternary contexts, South Africa. Palaeontologia Africana 51, 1–9.Google Scholar
Trabucco, A., Zomer, R.J., 2009. Global Aridity Index (Global-Aridity) and Global Potential Evapo-Transpiration (Global-PET) Geospatial Database (accessed September 2017). CGIAR Consortium for Spatial Information. http://www.cgiar-csi.org/Google Scholar
Tyson, P.D., 1986. Climatic Change and Variability in Southern Africa. Oxford University Press, Cape Town.Google Scholar
United Nations Environment Programme (UNEP), 1997. World Atlas of Desertification. UNEP, London.Google Scholar
Van Andel, T.H., 1989. Late Pleistocene sea levels and the human exploitation of the shore and shelf of southern South Africa. Journal of Field Archaeology 16, 133–155.Google Scholar
van Zinderen Bakker, E.M., 1967. Upper Pleistocene stratigraphy and Holocene ecology on the basis of vegetation changes in sub-Saharan Africa. In: Bishop, W.W., Clark, J.D. (Eds.), Background to Evolution in Africa. University of Chicago Press, Chicago, pp. 125–157.Google Scholar
van Zinderen Bakker, E.M., 1976. The evolution of late Quaternary paleoclimates of southern Africa. Palaeoecology of Africa 9, 160–202.Google Scholar
Vogel, J.C., Fuls, A., Ellis, R.P., 1978. The geographical distribution of Kranz grasses in South Africa. South African Journal of Science 74, 209–215.Google Scholar
Wilson, D.E., Reeder, D.M., 2005. Mammal Species of the World. 3rd ed. Johns Hopkins University Press, Baltimore, MD.Google Scholar
Zomer, R.J., Bossio, D.A., Trabucco, A., Yuanjie, L., Gupta, D.C., Singh, V.P., 2007. Trees and Water: Smallholder Agroforestry on Irrigated Lands in Northern India. International Water Management Institute, Columbo, Sri Lanka.Google Scholar
Zomer, R.J., Trabucco, A., Bossio, D.A., van Straaten, O., Verchot, L.V., 2008. Climate change mitigation: a spatial analysis of global land suitability for clean development mechanism afforestation and reforestation. Agriculture, Ecosystems and Environments 126, 67–80.Google Scholar
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