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Radiocarbon Dating of Travertine Deposits, Arbuckle Mountains, Oklahoma

Published online by Cambridge University Press:  18 July 2016

Dušan Srdoč
Affiliation:
Ruder Bošković Institute, P O Box 1016, 41001 Zagreb, Yugoslavia
Henry Chafetz
Affiliation:
Ruder Bošković Institute, P O Box 1016, 41001 Zagreb, Yugoslavia
Nancy Utech
Affiliation:
Ruder Bošković Institute, P O Box 1016, 41001 Zagreb, Yugoslavia
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Abstract

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Travertine deposits occur abundantly at past and present sites of waterfalls in the Arbuckle Mountains region of Oklahoma. This area (1600km2) consists of folded and faulted Prepaleozoic and Paleozoic rocks, with abundant outcrops of Paleozoic carbonate rocks. Samples of recently deposited and old travertine from the Turner Falls area were collected during a 1987 field trip and analyzed for 13C, 14C and 18O content. The aquatic chemistry of travertine depositing creeks was investigated systematically and compared with those of similar areas in SE and central Europe.

Type
II. Carbon Cycle in the Environment
Copyright
Copyright © The American Journal of Science 

References

Chafetz, H S and Folk, R L, 1984, Travertines: Depositional morphology and the bacterially constructed constituents: Jour Sed Petrol, v 54, p 289316.Google Scholar
Chave, K E and Suess, E, 1970, Calcium carbonate saturation in sea water: Limnol Oceanog, v 15, p 633637.Google Scholar
Dandurand, J L, Gout, R, Hoefs, J, Menschel, G, Schott, J and Usdowski, E, 1982, Kinetically controlled variations of major components and carbon and oxygen isotopes in a calcite-precipitating spring: Chem Geology, v 36, p 299315.Google Scholar
Drake, J J, 1983, The effect of geomorphology and seasonality on the chemistry of carbonate groundwater: Jour Hydrology, v 61, p 223236.CrossRefGoogle Scholar
Drake, J J and Wigley, T M L, 1975, The effect of climate on the chemistry of carbonate groundwater: Water Resources Research, v 11, p 958962.Google Scholar
Emeis, K C, Richnow, H H and Kempe, S, 1987, Travertine formation in Plitvice National Park, Yugoslavia: chemical versus biological control: Sedimentology, v 34, p 595609.CrossRefGoogle Scholar
Fontes, , Ch, J, 1983, Dating of groundwater, in Guidebook on nuclear techniques in hydrology: Vienna, IAEA, tech rept ser, no. 91, p 285317.Google Scholar
Ham, W E, 1973, Regional geology of the Arbuckle Mountains, Oklahoma: Geol Soc America Bull, Ann mtg guidebook field trip no. 5, Oklahoma Geol Survey, 56 p.Google Scholar
Herman, J S, 1987, CO2 outgassing and calcite precipitation in Falling Creek, Virginia, USA: Chem Geology, v 62, p 251262.CrossRefGoogle Scholar
Horvatinčić, N, Srdoč, D, Obelić, B, Krajcar-Bronić, I and O'Malley, P, 1986, The effects of contamination of calcareous sediments on their radiocarbon age, in Stuiver, M and Kra, R S, eds, Internatl C conf, 12th, Proc: Radiocarbon, v 22, no. 2A, p 510514.Google Scholar
Horvatinčić, N, Srdoč, D, Šilar, J and Tvrdíková, H, 1989, Comparison of the 14C activity of groundwater and recent tufa from karst areas in Yugoslavia and Czechoslovakia: Radiocarbon, this issue.Google Scholar
Jackson, R L and Hudman, L E, 1982, World regional geography: New York, John Wiley & Sons, Inc, 534 p.Google Scholar
Krajcar-Bronić, I, Horvatinčić, N, Srdoč, D and Obelić, B, 1986, On the initial 14C activity of karst aquifers with short mean residence time, in Stuiver, M and Kra, R S, eds, Internatl C conf, 12th, Proc: Radiocarbon, v 28, no. 2A, p 436440.Google Scholar
Mook, W G, 1976, The dissolution-exchange model for dating groundwater with C-14. Interpretation of environmental isotope and hydrochemical data, in Groundwater hydrology: IAEA, Vienna, p 213225.Google Scholar
Pearson, F J and Hanshaw, B B, 1970, Sources of dissolved carbonate species in groundwater and their effects on C-14 dating, in Isotope Hydrology, Proc: IAEA, Vienna p 271285.Google Scholar
Robinson, J L and Curtis, T D, eds, 1968, Oklahoma data book: Norman, Univ Oklahoma 172 p.Google Scholar
Shuster, E T and White, W B, 1971, Seasonal fluctuations in the chemistry of limestone springs: A possible means for characterizing carbonate aquifers: Jour Hydrology v 14 p 93128.CrossRefGoogle Scholar
Srdoč, D, Horvatinčić, N, Obelić, B and Krajcar-Bronić, I, 1987, Ruder Bošković Institute radiocarbon measurements IX: Radiocarbon, v 29, no. 1, p 115134 Google Scholar
Srdoč, D, Horvatinčić, N, Obelić, B, Krajcar-Bronić, I and Sliepčević, A, 1985, Calcite deposition processes in karstwaters with special emphasis on the Plitvice Lakes Yugoslavia: Carsus Iugoslaviae, v 11/4–6, p 101204.Google Scholar
Srdoč, D, Obelić, B, Horvatinčić, N and Sliepčević, A, 1980, Radiocarbon dating of calcareous tufa: How reliable data can we expect? in Stuiver, M and Kra, R S, eds, Internatl 14C conf 10th, Proc: Radiocarbon, v 22, no. 3, p 858862.Google Scholar
Steila, D, Wilms, D S and Leahy, E P, 1981, Earth and man, a systematic geography: New York, John Wiley & Sons, Inc, 437 p.Google Scholar
Tamers, M A, 1967, Surface-water infiltration and groundwater movement in arid zones of Venezuela, in Isotopes in hydrology: IAEA, Vienna, p 339353.Google Scholar
Wigley, T M L, Plummer, L N and Pearson, F J Jr, 1978, Mass transfer and carbon isotope evolution in natural water systems: Geochim et Cosmochim Acta, v 42, p 11171139 Google Scholar