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UCLA Radiocarbon Dates VI*
Published online by Cambridge University Press: 18 July 2016
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The measurements reported have been carried out during1966 in the Isotope Laboratory of the Institute ofGeophysics and Planetary Physics as a continuationof the UCLA date lists I through V. Samples wereanalyzed as CO2-gas at one atm in a 7.5 Lproportional counter with three energy channels. Theall-solid-state unit is supplied with high voltagefrom a remarkably stable and interference-freebattery source. Radiocarbon ages have beencalculated on the basis of a 5568-yr half-life aswas recommended by the Sixth InternationalC14 and H3 DatingConference, June 1965, in Pullman, Washington. Thestandard for the contemporary biosphere remains as95% of the count rate of NBS oxalic acid forradiocarbon laboratories. Background determinationshave been based on CO2 obtained frommarble. The error listed is always at least aone-sigma statistical counting error. In criticalcases C13/C12 isotope ratiomeasurements were made to correct the dates. Allsamples were subjected to accepted pretreatmentsdiffering in the individual cases to excludecontamination.
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*
Publication number 561, Institute of Geophysicsand Planetary Physics, University of California,Los Angeles.
References
Barker, H.
and Mackey, C.
J., 1959,
British Museum natural radiocarbon
measurements I:
Radiocarbon, v.
1, p.
81.CrossRefGoogle Scholar
Barker, H.
and Mackey, C.
J., 1961,
British Museum natural radiocarbon
measurements III:
Radiocarbon, v.
3, p.
39.CrossRefGoogle Scholar
Bartlett, A.,
1967, Chronological studies
of the Gatun Basin of Panama: a history
of vegetation, climate and sealevel changes during
the last 12,0000 yr.: Ph.D. dissertation, Harvard
Univ.Google Scholar
Baumhoff, M.
A. and Heizer, R.
F., 1965,
Postglacial climate and archaeology
in the desert west;
in
Postglacial climate and archaeology in the
desert west;. Wright, H.
E. and Frey, D.
G.:
Princeton,
Princeton Univ.
Press, p.
697.Google Scholar
Bell, B.,
1968, The archaeology
of Nayarit, Jalisco and Colima;
in
Handbook of Middle American
Indians, general ed. Wauchope, R.:
Austin,
Univ. of Texas
Press, in press.Google Scholar
Berger, R.,
Fergusson, G.
J., and Libby, W.
F., 1965,
UCLA radiocarbon dates
IV: Radiocarbon,
v. 7, p.
336.CrossRefGoogle Scholar
Berger, R.
and Horn, W.,
1967, The construction
date of the barns of Cressing Temple, Essex, in
the light of radiocarbon analysis:
Jour. Soc. Architectural
Historians, in press.Google Scholar
Berger, R.,
Horney, A.
G., and Libby, W.
F., 1964,
Radiocarbon dating of bone and
shell from their organic
components:
Science, v. 144,
p. 999.CrossRefGoogle ScholarPubMed
Berger, R.
and Libby, W.
F., 1966,
UCLA radiocarbon dates
V: Radiocarbon,
v. 8, p.
467.CrossRefGoogle Scholar
Berger, R.,
Libby, W.
F., Alexander, G.
V., Mead, J.
F., and Ross, J.
F., 1966,
Atmospheric bomb radiocarbon as a
tracer in human beings;
in
Atmospheric bomb radiocarbon as a tracer in
human beings;. Rothchild, S.:
New York,
Plenum Press, p.
321.Google ScholarPubMed
Berger, R.,
Taylor, R.
E., and Libby, W.
F., 1966,
Radiocarbon content of marine
shells from the California and Mexican west
coast: Science,
v. 153, p.
864.CrossRefGoogle ScholarPubMed
Crane, H.
R. and Griffin, J.
B., 1963,
University of Michigan radiocarbon
dates VIII:
Radiocarbon, v.
5, p.
228.CrossRefGoogle Scholar
Damon, P
E., Haynes, C.
V., and Long, A.,
1964, Arizona
radiocarbon dates V:
Radiocarbon, v.
6, p.
91.CrossRefGoogle Scholar
Damon, P.
E., Long, A.,
and Grey, D.
C., 1966,
Fluctuation of atmospheric
carbon-14 during the last six
millenia: Jour. Geophys.
Res., v. 71, p.
1055.CrossRefGoogle Scholar
Damon, P.
E., Long, A.,
and Sigalove, J.
J., 1963,
Arizona radiocarbon dates
IV: Radiocarbon,
v. 5, p.
283.CrossRefGoogle Scholar
DeVries, H.,
1958, Variations in
concentration of radiocarbon with time and
location on earth:
Koninkl. Ned. Akad. Wetensch.
Prodc.
B61, p.
94.Google Scholar
DeVries, H.
and Barendsen, G.
W., 1958,
Groningen radiocarbon dates
III: Science, v.
128, p.
1550.CrossRefGoogle Scholar
Ekholm, G.
F., 1942,
Excavations at Guasave, Sinoloa,
Mexico: Anthropological
Papers of Am. Mus. of Nat. History, v.
38, pt.
2.Google Scholar
Fergusson, G.
J. and Libby, W.
F., 1962,
UCLA radiocarbon dates
I: Radiocarbon,
v. 4, p.
109.CrossRefGoogle Scholar
Fergusson, G.
J. and Libby, W.
F., 1963,
UCLA radiocarbon dates
II: Radiocarbon,
v. 5, p.
1.CrossRefGoogle Scholar
Fergusson, G.
J. and Libby, W.
F., 1964,
UCLA radiocarbon dates
III: Radiocarbon,
v. 6, p.
318.CrossRefGoogle Scholar
Gonzalez, A.
R., 1962,
Nuevas fechas de la cronologia
arqueologica Argentina obtenidas por el metodo de
radiocarbon: Revista del
Instituto de Antropologia. Universidad Nacional de
Cordoba, v. 1, p.
303.Google Scholar
Gonzalez, A.
R., 1966, Paper
presented at 37th Internat. Cong. of Americanists,
La Plata, Agentina.Google Scholar
Harrington, M.
R., 1957,
A Pinto site at Little Lake,
California: Southwest Mus.
Papers, no.
17.Google Scholar
Hayes, W.
C., 1962,
Egypt—to the end of twentieth
dynasty; in Egypt—to the end of
twentieth dynasty;. Hayes, C.,
Rowton, M.
B. and Stubbings, F.
H., Chronology:
Cambridge Ancient History Fascicles:
Cambridge,
Cambridge Univ.
Press, general eds. Edwards, I. E.
S., Gadd, C.
J. and Hammond, N. G.
L., p.
1–23.Google Scholar
Haynes, C.
V., Damon, P.
E., and Grey, D.
C., 1966,
Arizona radiocarbon dates
VI: Radiocarbon,
v. 8, p.
1.CrossRefGoogle Scholar
Helck, W.,
1956, Untersuchungen zu
Manetho und den ägyptischen Königslisten:
Berlin,
Akademie
Verlag.Google Scholar
Horn, W.,
Born, E.,
and Berger, R.,
1967, A victim of fire: the
15th century manor barn of Nettlestead,
Kent:
Aachener
Kunstblätter, in
press.Google Scholar
Horn, W.,
Charles, F. W.
B., and Berger, R.,
1966, The cruck-built
barn of Middle Littleton,
Worcestershire: Jour. Soc.
Architectural Historians, v.
25, p.
221.CrossRefGoogle Scholar
Kaplan, I.
R. and Nissenbaum, A.,
1966, Anomalous
carbon-isotope ratios in nonvolatile organic
material:
Science, v. 153,
p. 744.CrossRefGoogle ScholarPubMed
Kigoshi, K.
and Hasegawa, H.,
1965, Secular
variations of atmospheric radiocarbon
concentration and its dependence on
geomagnetism: Jour.
Geophys. Res., v. 71, p.
1065.CrossRefGoogle Scholar
La
Marche, V.
C. and Moonev, H.
A., 1967,
Altithermal timberline advance in
Western United States:
Nature, v. 213,
p. 980.CrossRefGoogle Scholar
Lanning, E.
P., 1963,
Archaeology of the Rose Spring
Site, Iny-372: Univ. of
California Publications in American Archaeology
and Ethnology, v. 49,
no. 3, p.
237.Google Scholar
Libby, W.
F., 1955.
Radiocarbon dating: Chicago,
Univ. of Chicago Press. New Paperback edition with
notes added, 1965.Google Scholar
Libby, W.
F., 1963,
Accuracy of radiocarbon
dates: Science,
v. 140, p.
278.CrossRefGoogle ScholarPubMed
Libby, W.
F., Berger, R.,
Mead, J.
F., Alexander, G.
V., and Ross, J.
F., 1964,
Replacement rates for human tissues
from atmospheric radiocarbon:
Science, v. 146,
p. 1170.CrossRefGoogle ScholarPubMed
Lingenfelter, R.
E., 1963,
Production of carbon-14 by cosmic-
ray neutrons: Revs.
Geophys., v. 1, p.
1.CrossRefGoogle Scholar
Long, S.
V., 1966,
An application of the direct historical
approach to West Mexican archaeology:
Ph.D. dissertation, Univ. of California, Los
Angeles.Google Scholar
Long, S.
V. and Taylor, R.
E., 1966,
Chronology of a West Mexican
shaft-tomb:
Nature, v. 212,
p. 651.CrossRefGoogle Scholar
Long, S.
V. and Taylor, R.
E., 1966,
Suggested revision for West Mexican
archaeological sequences:
Science, v. 154,
p. 1456.CrossRefGoogle Scholar
Nicholson, H.
B. and Berger, R.,
1966, Two Aztec wood
idols: Manuscript on file, Inst. of
Geophysics and Dept. of Anthropology,
UCLA.Google Scholar
Nissenbaum, A.
and Kaplan, I.
R., 1967,
Origin of the Beeri (Israel) sulfur
deposit: Chemical
Geology, v. 1, p.
295.CrossRefGoogle Scholar
Olsson, I.,
1959, Uppsala natural
radiocarbon measurements I:
Radiocarbon, v.
1, p.
87.CrossRefGoogle Scholar
Ralph, E.
K., 1959,
University of Pennsylvania
radiocarbon dates III:
Radiocarbon, v.
1, p.
45.CrossRefGoogle Scholar
Stuiver, M.,
1961, Variations in
radiocarbon concentration and sunspot
activity: Jour. Geophys.
Res., v. 66, p.
273.CrossRefGoogle Scholar
Stuiver, M.,
1965, Carbon-14
content of 18th and 19th century
wood: variations
correlated with sunspot activity:
Science, v. 149, p.
533.Google Scholar
Stuiver, M.
and Suess, H.
E., 1966,
On the relationship between
radiocarbon dates and true sample
ages:
Radiocarbon, v. 8,
p. 534.CrossRefGoogle Scholar
Suess, H.
E., 1965,
Secular variations of the
cosmic-ray-produced carbon-14 in the atmosphere
and their interpretations:
Jour. Geophys. Res., v.
70, p.
5937.CrossRefGoogle Scholar
Taylor, R.
E. and Berger, R.,
1967. Radiocarbon
dates from Tizapan El Alto,
Jalisco: in
Excavations at Tizapan, Meighan, C.
W. and Foote, L.:
monograph, in press.Google Scholar
Tubbs, D.
Y. and Berger, R.,
1967, The viability of
pathogens in ancient human coprolites:
Univ. of California, Berkeley, Archaeol. Survey
report No. 70.Google Scholar
Wells, P.
V., 1966,
Late Pleistocene vegetation and
degree of pluvial climate change in the Chihuahuan
desert: Science,
v. 153, p.
970.CrossRefGoogle Scholar
Wells, P.
V. and Berger, R.,
1967, Late Pleistocene
history of woodland vegetation in the Mohave
desert: Science,
v. 155, p.
1640.CrossRefGoogle ScholarPubMed
Willis, E.
H., Tauber, T.,
and Münnich, K.
O., 1960,
Variations in the atmospheric
radiocarbon concentration over the past 1300
years:
Radiocarbon, v.
2, p.
1.Google Scholar
Wood, L.
and Libby, W.
F., 1964,
Geophysical implications of
radiocarbon date discrepancies;
in
Geophysical implications of radiocarbon date
discrepancies;. Craig,
Miller and Wasserberg: Amsterdam,
North-Holland Pub.
Co., p.
205.Google Scholar
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