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Mineralogical Studies On Bone Apatite and Their Implications for Radiocarbon Dating

  • Afifa A Hassan (a1), John D Termine (a2) and C Vance Haynes (a3)

Abstract

Infrared (IR) spectrophotometry and X-ray diffraction (XRD) were conducted on modern and fossil bone material from archaeological sites in the U S to determine post-mortem changes in bone apatite and to evaluate the effect of these changes on radiocarbon dating. IR absorption bands, XRD peak-broadening parameters, and XRD unit cell measurements indicated that during fossilization, bone apatite, a mineral similar to dahllite, was partially or completely recrystallized to francolite. Post-mortem changes involved then removal of some of the endogenous crystal carbonate both at surfaces and at internal OH-sites and introduction of exogenous carbonate into internal crystal PO4 sites. Increased fluorine content accompanied carbonate substitution.

Both the carbon isotopic composition and the amount of exogenous carbonate introduced into the apatite structure will affect the radiocarbon dating of bone apatite. Special sample pre-treatment may remove most of the substituted carbonate in some cases. Simulated experiments are suggested for a better understanding of the nature and mechanism of carbonate substitution in bone apatite for the removal of the exogenously substituted carbon and the improvement of radiocarbon dates.

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References

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Berger, R, Horney, A G, and Libby, W F, 1964, Radiocarbon dating of bone and shell from their organic components: Science, v 144, p 9991001.
Berger, R, Protsch, R, Reynolds, R, Rozaire, C, and Sackett, J R, 1971, New radiocarbon dates based on bone collagen in California Paleoindian: Berkeley, Univ California Archaeol Research Facility Contr, no. 12, p 4349.
Borneman-Starinkevich, I E, and Belov, N V, 1953, Carbonate-apatites: Akad Nauk SSSR Doklady, v 90, p 8992.
Carlström, D, 1955, X-ray crystallographic studies on apatites and calcified structures: Acta Radialosia Supp, v 121, p 159.
Carlström, D Mineralogical carbonates containing apatites, in Brown, W, and Young, R, eds, Internat symposium on the structural properties of hydroxy apatite and related compounds, 1968: New York, Gordon & Breach (in press).
Carlström, D, and Glas, J E, 1959, The size and shape of the apatite crystallites in bone as determined from line broadening measurements on oriented specimens: Biochem Biophys Act, v 35, p 4653.
Eanes, E D, 1973, Eleven X-ray diffraction of vertebrate hard tissue, in Zipkins, I, ed, Biological mineralization: New York, John Wiley & Sons, Inc, p 227256.
Elliott, J C, 1965, The interpretation of the infrared absorption spectra of some carbonate-containing apatites, in Stack, M V, and Fernhead, R W, eds, Tooth enamel, its composition, properties and fundamental structure: Bristol, John Wright & Sons, Ltd, p 220, 5058.
Elliott, J C Synthetic and biological carbonates containing apatite, in Brown, W, and Young, R, eds, Internat symposium on the structural properties of hydroxy apatites and related compounds, 1968: New York, Gordon & Breach (in press).
Greenfield, D J, and Eanes, E D, 1972, Formation chemistry of amorphous calcium phosphates prepared from carbonate containing solutions: Calcified Tissue Research, v 9, p 152162.
Hassan, A A, 1976, Geochemical and mineralogical studies on bone material and their implications for radiocarbon dating: PhD dissert, Southern Methodist Univ (Univ microfilms, Ann Arbor, Michigan).
Harper, R A, and Posner, A S, 1966, Measurement of non-crystalline calcium phosphate in bone mineral: Soc Expt Biol Med Proc, v 122, p 137142.
Haynes, C Jr, 1968, Radiocarbon analysis of inorganic carbon of fossil bones and enamel: Science, v 161, p 687688.
Höhling, H J, Themann, H, and Vahl, J, 1966, Collagen and apatite in hard tissues and pathological formation from a crystal chemical point of view, in Fleisch, H, Blackwood, H J J, and Owen, M, eds, Calcified tissues, European symposium on calcified tissues, 3rd, Davos, 1965, Proc: New York, Springer-Verlag, p 146151.
Klug, H P, and Alexander, L E, 1954, X-ray diffraction procedures for polycrystalline and amorphous materials: New York, John Wiley & Sons, Inc, p 491537.
Krueger, H W, 1965, The preservation and dating of collagen in ancient bones: Internat conf on radiocarbon and tritium dating, 6th, Pullman, Washington, 1965, Proc (CONF-650652), p 332337.
LeGeros, R Z, 1965, Effect of carbonate in the lattice parameters of apatite: Nature, v 206, p 403404.
LeGeros, R Z, LeGeros, J P, Trautz, O R, and Klein, E, 1968, Crystallographic studies on the CO3 substitution in the apatite structure: Soc Chim France Bull, spec no., p 17121718.
LeGeros, R Z, Massuyes, M, Trombe, J C, Bonel, G, and Montel, G, Infrared and X-ray properties of synthetic carbonate apatites, in Brown, W and Young, R, eds, Internat symposium on the structural properties of hydroxy apatite and related compounds, 1968: New York, Gordon & Breach (in press).
LeGeros, R Z, Trautz, O R, Klein, E, and LeGeros, J P, 1969, Two types of carbonate substitution in the apatite structure: Experimentia, v 15, p 57.
LeGeros, R Z, Trautz, O R, LeGeros, J P, and Klein, E, 1967, Apatite crystallites: effects of carbonate on morphology: Science, v 155, p 14091411
Longin, R, 1971, New method of collagen extraction for radiocarbon dating: Nature, v 230, p 241242.
Lundy, D R, and Eanes, E D, 1973, An X-ray line-broadening study of turkey leg tendon: Arch Oral Biol, v 18, p 813826.
McClellan, G H, and Lehr, J R, 1969, Chemical investigation of apatites: Am Mineralogist, v 54, no. 9-10, p 13741391.
McConnell, D, 1938, A structural investigation of the isomorphism of the apatite group: Am Mineralogist, v 23, p 119.
McConnell, D 1952a, The problem of the carbonate apatites. IV. Structural substitutions involving CO3= and OH- : Soc francaise mineralogie et crystallographie Bull, v 75, p 428445.
McConnell, D 1952b, The crystal chemistry of carbonate apatites and their relationship to the composition of calcified tissues: Jour Dent Research, v 31, p 5363.
McConnell, D 1959, The problem of carbonate apatites: Econ Geology, v 54, p 749751.
McConnell, D 1962, The crystal structure of bone: Clin Orthopaed, no. 23, p 253268.
McConnell, D, 1965, Crystal chemistry of hydroxyapatite. Its relation to bone mineral: Arch Oral Biol, v 10, p 421431.
Neuman, W F, 1950, Bone as a problem in surface chemistry, in Reifenstein, E Jr, ed, Metabolic inter-relations, trans, 2nd conf: New York, Josiah Macy, Jr, Foundation, p 3772.
Neuman, W F, and Mulryan, B J, 1949, Studies on the surface chemistry of bone 1—Recrystallization: U S Atomic Energy Comm, AECU-132, p 19.
Neuman, W F, and Mulryan, B J 1967, Synthetic hydroxyapatite crystals, III. The carbonate system: Calcified Tissues Research, v 1, p 94104.
Neuman, W F, Neuman, M W, Main, E R, and Mulryan, B J, 1949, The deposition of uranium in bone: Jour Biol Chem, v 179, p 325348.
Neuman, W F, and Weikel, J Jr, 1954, Recrystallization in bone mineral: New York Acad Sci Annals, v 60, p 685695.
Posner, A S, 1969, Crystal chemistry of bone mineral: Physiological Rev, v 49, p 760792.
Posner, A S, Eanes, E D, Harper, R A, and Zipkins, I, 1963, X-ray diffraction analysis of the effect of fluoride on human bone apatite: Arch Oral Biol, v 8, p 549570.
Posner, A S, Harper, R A, and Muller, S A, 1965, Age changes in the crystal chemistry in bone apatite: New York Acad Sci Annals, v 131, p 737742.
Russell, J E, Termine, J D, and Avioli, L V, 1973, Abnormal bone mineral maturation in the chronic uremic state: Jour Clin Inv, v 52, p 28482852.
Sellstedt, H, Engstrand, L, and Gejvall, N-G, 1966, New application of radiocarbon dating to collagen residue in bones: Nature, v 212, p 572574.
Simpson, D R, 1967, Effect of pH and solution concentration on the composition of carbonate apatite: Am Mineralogist, v 52, p 896902.
Simpson, D R 1972, Problems of the composition and structure of the bone minerals: Clin Orthopaed, v 86, p 260286.
Stevenson, J S, 1966, Fluorine content of microsaur teeth from the Carboniferous rocks of Joggins, Nova Scotia: Science, v 154, p 15481550.
Tamers, M A, and Pearson, F Jr, 1965, Validity of radiocarbon dates on bone: Nature, v 208, p 10531055.
Termine, J D, and Eanes, E D, 1972, Comparative chemistry of amorphous and apatitic calcium phosphate preparations: Calcified Tissue Research, v 10, p 171197.
Termine, J D, and Lundy, D R, 1973, Hydroxide and carbonate in rat bone mineral and its synthetic analogues: Calcified Tissue Research, v 13, p 7382.
Termine, J D, and Posner, A S, 1966, Infrared determination of the percentage of crystallinity in apatitic calcium phosphates: Nature, v 211, p 268270.
Termine, J D, and Posner, A S 1967, Amorphous/crystalline interrelationships in bone mineral: Calcified Tissue Research, v 1, p 823.
Trautz, O R, 1955, X-ray diffraction of biological and synthetic apatites: New York Acad Sci Annals, v 60, p 696712.
Trautz, O R 1960, Crystallographie studies of calcium carbonate phosphate: New York Acad Sci Annals, v 85, p 145160.

Mineralogical Studies On Bone Apatite and Their Implications for Radiocarbon Dating

  • Afifa A Hassan (a1), John D Termine (a2) and C Vance Haynes (a3)

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