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Blood residue analysis of 90,000-year-old stone tools from Tabun Cave, Israel

Published online by Cambridge University Press:  02 January 2015

T. H. Loy
Affiliation:
Department of Prehistory, Research School of Pacific Studies. The Australian National University, GPO Box 4, Canberra ACT 2601, Australia
B. L. Hardy
Affiliation:
Department of Anthropology, Indiana University, Bloomington IN 47405, USA

Extract

On ten stone tools from Tabun Cave, Israel, excavated from a layer dated to 90,000 years old, the presence of organic tool-use residues has been detected. Among them are red blood cells, collagen, resin and hair fragments identified by microscopy and biochemical analyses.

Type
Papers
Copyright
Copyright © Antiquity Publications Ltd 1992

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References

Andrew, W. 1965. Comparative hematology. New York (NY): Grime & Stratton.Google Scholar
Appleyard, H.M. 1960. Guide to the identification of animai fibres. Leeds: Wira Press.Google Scholar
Ascenzi, A. Brunori, M. Citro, G. & Zito, R. 1985. Immunological detection of hemoglobin in bones of ancient Roman times and of Iron and Eneo-lithic Ages, Proceedings of the National Academy of Science, USA 82: 7170–72.Google Scholar
Asquith, R.S. & Leon, N.H. 1977. Chemical reactions of keratin fibres, in Asquith, R.S. (ed.), Chemistry of natural protein fibres. New York (NY): Plenum Press.Google Scholar
Bada, J. 1985. Amino acid racimization dating of fossil bones, Annual Review of Earth and Planetary Science 13: 241–68.Google Scholar
Bahn, P.G. 1987. Getting blood from stone tools, Nature 330:14.Google Scholar
Bar-YOSEF, O. 1989. Geochronology of the Levantine Middle Palaeolithic, in Mellars, & Stringer, 1989:589610.Google Scholar
Brunner, H. & Coman, B.J. 1974. The identification of mammalian hair. Melbourne: Inkata Press.Google Scholar
Cha, Z. 1989. Deamidation of bovine calbindin, Biochemistry 28(21): 8646–53.Google Scholar
Culliford, B.J. 1971. The examination and typing of bloodstains in the crime laboratory. Washington (DC): US Department of Justice. Publication Pr-71-7.Google Scholar
Dibble, H.L. 1981. Technology strategies of stone tool production at Tabun Cave (Israel). Unpublished Ph.D dissertation, Department of Anthropology, University of Arizona.Google Scholar
Dorrill, M. & Whitehead, P.H. 1979. The species identification of very old human bloodstains, Forensic Science International 13: 11116.Google Scholar
Farrand, W.R. 1979. Chronology and palaeoenviron-ment of Levantine prehistoric sites as seen from sediment studies, Journal of Archaeological Sciences 6: 369–92.Google Scholar
Garrod, D.A.E. & Bate, D.M.A. 1937. The Stone Age of Mt Carmel 1. Oxford: Clarendon Press.Google Scholar
Hare, P.E. 1980. Organic geochemistry of bone and its relation to the survival of bone in the natural environment, in Behrensmeyer, A.K. & Hill, A.P. (ed.), Fossils in the making: vertebrate tapho-nomy and paleoecology: 208–19. Chicago (IL): University of Chicago Press.Google Scholar
Hyland, D., Tersak, J. Adovasio, J. & Siegel, M. 1990. Identification of the species of origin of residual blood on lithic material, American Antiquity 55(1): 104–12.Google Scholar
Jelinek, A.J. 1977. A preliminary study of flakes from the Tabun Cave, Mount Carmel, Eretz-Israel 13: 8796.Google Scholar
Jelinek, A.J. 1982a. The Middle Paleolithic in the Southern Levant, with comments on the appearance of modern Homo sapiens, in Ronen, A. (ed.), The transition from Lower to Middle Palaeolithic and the origin of modern man: 57104. Oxford: British Archaeological Reports.Google Scholar
Jelinek, A.J. 1982b. The Tabun Cave and Paleolithic man in the Levant, Science 216: 1369–75.Google Scholar
Jelinek, A.J., Farrand, W.R., Haas, G., Horowitz, A. & Goldberg, P. 1973. New excavations at the Tabun Cave, Mount Carmel, Israel, 1967–1972: a preliminary report, Paleorient 1(2): 151–83.Google Scholar
Jones, R., Cosgrove, R. , Allen, J., Cane, S., Kiernan, K., Webb, S., Loy, T.H, West, D. & Stadler, E. 1988. An archaeological reconnaissance of karst caves within the Southern Forests region of Tasmania, September 1987, Australian Archaeology 26: 123.Google Scholar
Lea, C.H., Hannan, R.S. & Greaves, R.I.N. 1950. The reaction between proteins and reducing sugars in the ‘dry’ state, Biochemical Journal 47: 626–9.Google Scholar
Lowenstein, J.M. 1985. Molecular approaches to the identification of species, American Scientist 73: 541.Google Scholar
Loy, T.H. 1983. Prehistoric blood residues: detection on tool surfaces and identification of species of origin, Science 220: 1269–71.Google Scholar
Loy, T.H. 1987. Recent advances in blood residue analysis, in Ambrose, W.R. & Mummery, J.M. (ed.), Archaeometry: further Australasian studies: 5765. Canberra: Australian National University.Google Scholar
Loy, T.H. 1990. Prehistoric organic residues: recent advances in identification, dating and their antiquity, in Archaeometry ‘90: Proceedings of the 27th international symposium on Archaeometry, Heidelberg: 645–56. Basel: Springer Verlag.Google Scholar
Loy, T.H., Jones, R., Nelson, D.E., Meehan, B., Vogel, J., Southon, J. & Cosgrove, R. 1990. Accelerator radiocarbon dating of human blood proteins in pigments from Late Pleistocene art sites in Australia, Antiquity 64: 110–16.Google Scholar
Loy, T.H. & Wood, A.R. 1989. Blood residue analysis at Cayönü Tepesi, Turkey, Journal of Field Archaeology 16(4): 451–60.Google Scholar
Mccown, T.D. & Keith, A. 1939. The Stone Age of Mount Carmel 2. Oxford: Clarendon Press.Google Scholar
Meister, A. 1965. Biochemistry of the amino acids 1. New York (NY): Academic Press.Google Scholar
Mellars, P. & Stringer, C. (ed.). 1989. The human revolution: behavioural and biological perspectives on the origins of modern humans. Princeton (NJ): Princeton University Press.Google Scholar
Newman, M & Julig, P. 1989. The identification of protein residues on lithic artifacts from a stratified boreal forest site, Canadian Journal of Archaeology 13: 119–32.Google Scholar
Pääbo, S. 1989. Ancient DNA: extraction, characterization, molecular cloning and enzymatic amplification, Proceedings of the National Academy of Science, USA 86: 1939–43.Google Scholar
Richards, T. 1989. Initial results of a blood residue analysis of lithic artefacts from Thorpe Common rocksheiter, south Yorkshire, in Brooks, I. & Phillips, P. (ed.), Breaking the stony silence: papers from the Sheffield Lithics Conference 1988: 7390. Oxford: British Archaeological Reports. British series 123.Google Scholar
Robinson, A.B. 1974. Evolution and the distribution of glutaminyl and asparaginyl residues in proteins, Proceedings of the National Academy of Science, USA 71(3): 885–8.Google Scholar
Sensabaugh, G.F., Wilson, A.C. & Kirk, P.L. 1971a. Protein stability in preserved biological remains, International Journal of Biochemistry 2: 545–57.Google Scholar
Sensabaugh, G.F., Wilson, A.C. & Kirk, P.L. 1971b. Protein stability in preserved biological remains, International Journal of Biochemistry 2: 558–68.Google Scholar
Shea, J.J. 1988. Spear points from the Middle Paleolithic of the Levant, Journal of Field Archaeology 15: 441–50.Google Scholar
Shea, J.J. 1989. A functional study of the lithic industries associated with hominid fossils in the Kebara and Qafzeh Caves, Israel, in Mellars, & Stringer, 1989: 611–25.Google Scholar