Hostname: page-component-586b7cd67f-2plfb Total loading time: 0 Render date: 2024-11-25T09:59:36.485Z Has data issue: false hasContentIssue false
  • English
  • Français

US Geological Survey, Water Resources Division, Radiocarbon Measurements I

Published online by Cambridge University Press:  18 July 2016

F J Pearson Jr.  and
Martha Bodden
F J Pearson Jr.
Affiliation:
US Geological Survey, Isotope Hydrology Laboratory, National Center, Reston, Virginia 22092
Martha Bodden
Affiliation:
US Geological Survey, Isotope Hydrology Laboratory, National Center, Reston, Virginia 22092
Rights & Permissions [Opens in a new window]

Extract

Core share and HTML view are not available for this content. However, as you have access to this content, a full PDF is available via the ‘Save PDF’ action button.

The Water Resources Division of the US Geological Survey has operated a low-level tritium laboratory since the late 1950's. In 1970, 14C-measuring facilities were added to that laboratory to provide analyses of ground water and other carbonates, primarily for research and field projects of the Division.

Type
Research Article
Information
Radiocarbon , Volume 17 , Issue 1 , 1975 , pp. 135 - 148
Copyright
Copyright © The American Journal of Science 

References

Barker, Harold, 1953, Radiocarbon dating: large-scale preparation of acetylene from organic material: Nature, v 172, p 631–632.Google Scholar
Bedinger, M S, Pearson, F J Jr, Reed, J E, Sniegocki, R T, and Stone, C G, 1973, The waters of Hot Springs National Park—their origin, nature, and management: US Geol Survey open-file rept, 122 P.CrossRefGoogle Scholar
Calf, G E and Polach, H A, 1974, Teflon vials for liquid scintillation counting of carbon-14 samples in: Internatl symposium on liquid scintillation counting Proc, Sydney, Australia, 1973.Google Scholar
Crosby, J W III, and Chatters, R M, 1965, Water dating techniques as applied to the Pullman-Moscow ground-water basin: Coll Eng, Washington State Univ, Pullman, Bull 296, 21 P.Google Scholar
Fontes, J-Ch, 1971, Un ensemble destine a la mesure de l'achvile du radiocarbone naturel par scintillation liquide: Rev geog phys et geol dynamique, v 13, p 67–86.Google Scholar
Fraser, I, Polach, H A, Temple, B B, and Gillespie, R, 1974, Purity of benzene synthesized for liquid scintillation C-14 dating, in: Stanley, P E and Scoggins, B A (eds), Liquid scintillation counting; recent advances, N Y Academic Press, in press.Google Scholar
Garza, Sergio, 1966, Ground-water resources of the San Antonio area, Texas, A progress report on studies, 1960–1964: Texas Water Devel Bd Rept 34, 31 P.Google Scholar
Gleason, J D, Friedman, Irving, and Hanshaw, B B, 1969, Extraction of dissolved carbonate species from natural water for carbon isotope analysis: U S Geol Survey Prof Paper 650-D, p D248-D250.Google Scholar
Grove, D B, Rubin, Meyer, Hanshaw, B B, and Beetem, W A, 1969, Carbon-14 dates of ground water from a Paleozoic carbonate aquifer, south-central Nevada: U S Geol Survey Prof Paper 650-C, p C215 218.Google Scholar
Guntz, A, 1896, Action du lithium sur le carbone et quelques composes carbone: Acad sci [Paris] Comptes rendus, v 123, p 1273–1275.Google Scholar
Guntz, A, 1898, Sur la chaleur de formation du carbone de lithium: Acad sci [Paris] Comptes rendus, v 126, p 1866–1868.Google Scholar
Haskell, E E Jr, Leventhal, J S, Bianchi, W C, 1966, The use of tritium to measure the movement of groundwater toward irrigation wells in western Fresno County, California: Jour Geophys Research, v 71, p 3849–3859.Google Scholar
Hubbs, C L and Bien, G S, 1967, La Jolla natural radiocarbon measurements V: Radiocarbon, v 9, p 261–294.Google Scholar
IAEA, 1967, Isotopes in Hydrology: Internatl Atomic Energy Agency, Vienna, 740 P.Google Scholar
IAEA, 1970, Isotope Hydrology 1970: Internatl Atomic Energy Agency, Vienna, 918 P.Google Scholar
IAEA, 1974, in press.Google Scholar
Ingerson, Earl and Pearson, F J Jr, 1964, Estimation of age and rate of motion of ground-water by the 14C method in: Recent researches in the fields of atmosphere, hydrosphere, and nuclear geochemistry, Tokyo, Maruzen Co, p 263–283.Google Scholar
LaSala, A M Jr, Doty, G C, and Pearson, F J Jr, 1973, The regional ground water flow system of south central Washington: U S Geol Survey open-file rept, 55 P.Google Scholar
Mifflin, M D, 1968, Delineation of ground-water flow systems in Nevada: Desert Research Inst, Univ Nevada, Tech rept ser H-W, pub 4, 111 P.Google Scholar
Noakes, J E, Kim, S M, and Stipp, J J, 1966, Chemical and counting advances in liquid scintillation age dating in Chemical and counting advances in liquid scintillation age dating: USAEC rept CONF-650652, p 68–92.Google Scholar
Pearson, F J Jr, Bedinger, M S, and Jones, B F, 1972, Carbon-14 ages of water from the Arkansas Hot Springs: 8th internatl radiocarbon dating conf Proc, Wellington, New Zealand, p D19-D30.Google Scholar
Pearson, F J and Hanshaw, B B, 1970, Sources of dissolved carbonate species in groundwater and their effects on Carbon-14 dating in: Isotope Hydrology, 1970, Vienna, IAEA, p 271–285.Google Scholar
Pearson, F J Jr and Swarzenski, W V, 1974, Carbon-14 evidence for the origin of arid region ground water: North Eastern Province, Kenya in: Symposium on isotope techniques in groundwater hydrology Proc, March 1974, Vienna, IAEA, in press.Google Scholar
Petitt, B M Jr, and George, W O, 1956, Ground-water resources of the San Antonio area, Texas: Texas Board Water Eng Bull 5608, v 1, 80 P.Google Scholar
Poland, J F, 1973, New tritium data on movement of ground water in western Fresno County, California (abs): Am Geophys Union Trans, v 54, no. 11, p 1077.Google Scholar
Rettman, Paul, 1969, Records of wells and springs, San Antonio area, Texas: Edwards Underground Water Dist, San Antonio, 29 P.Google Scholar
Seaber, P R, Back, William, Rightmire, C T, and Cherry, R N, 1974, Genesis of hydrogeochemical facies of ground water in the Punjab region of Pakistan, in: Symposium on development of groundwater resources Proc, Madras, India, in press.Google Scholar
Tamers, M A, 1967, Radiocarbon ages of groundwater in an arid zone unconfined aquifer, in: Isotope techniques in the hydrologic cycle, Geophys Mon no. 11, Washington, Am Geophys Union, p 143–152.Google Scholar
Truesdell, A H and Jones, B F, 1973, WATEQ—A computer program for calculating chemical equilibria in natural waters: Natl Tech Inf Service, TB-220464.Google Scholar
Wendt, I, Stahl, W, Geyh, M, and Fauth, F, 1967, Model experiment for 14C waterage determinations, in: Isotopes in Hydrology Vienna, IAEA, p 321–337.Google Scholar
Winograd, I J, 1971, Origin of major valley-level springs in Amargosa Desert, Nevada and Death Valley, California: unpub PhD dissert, Univ Arizona, 170 P.Google Scholar