Metal provenancing using isotopes and the Oxford archaeological lead isotope database (OXALID)

被引:0
作者
Zofia Anna Stos-Gale
Noël H. Gale
机构
[1] Ifold,
[2] Nuffield College,undefined
来源
Archaeological and Anthropological Sciences | 2009年 / 1卷
关键词
Lead isotopes; Tin isotopes; Copper isotopes; Archaeology; Provenance studies; Methodology; Interpretation; Statistics; Ore deposits; Metals trade; Bronze Age; Mediterranean;
D O I
暂无
中图分类号
学科分类号
摘要
This paper reviews the research into the methodology of lead isotope provenance studies carried out at the University of Oxford between 1975 and 2002, at first in the Department of Geology (Geological Age and Isotope Research Laboratory), later in the Isotrace Laboratory based in the Department of Nuclear Physics, and eventually part of the Research Laboratory of Archaeology and the History of Art. These 27 years of intensive work, funded initially by the Stiftung Volkswagenwerk, and later from numerous UK Government and Charitable funds and finally by the Institute of Aegean Prehistory laid the foundations of the lead isotope provenance methodology and resulted in a large database of analytical isotope and elemental results. In spite of the efforts of the authors, this database is still not comprehensively published or easily accessible in a digital format by all researchers interested in using this method for their projects. The possibilities of advancing this situation are discussed. The authors discuss in detail the basic restrictions and advantages of using the lead isotope compositions of ores in mineral deposits for finding the origin of the raw materials used for making ancient artefacts. Methods for the scientific interpretation of the data are discussed, including attempts to use statistical methods. The methodology of creating the Oxford lead isotope database (OXALID) is outlined and a summary is given of the lead isotope resource provided by OXALID.
引用
收藏
页码:195 / 213
页数:18
相关论文
共 205 条
  • [1] Arden JW(1974)A new electrochemical technique for the separation of lead at trace levels from natural silicates Analytical Chemistry 46 2-9
  • [2] Gale NH(2006)Lead isotope analysis of archaeological metals by multiple-collector inductively coupled plasma mass spectrometry Archaeometry 48 45-56
  • [3] Baker J(1973)Lead separation by anodic deposition and isotopic ratio mass spectrometry of microgram and smaller quantities Analytical Chemistry 45 1881-1884
  • [4] Stos S(1999)On the multivariate normality of data arising from lead isotope fields Journal of Archaeological Science 26 117-124
  • [5] Waight T(1998)Testing for multivariate normality via univariate tests: a case study using lead isotope ratio data Journal of Applied Statistics 25 671-683
  • [6] Barnes IL(2000)Sample Size and Related Issues in the Analysis of Lead Isotope Data Journal of Archaeological Science 27 973-980
  • [7] Murphy TJ(1999)Tracing ancient tin via isotope analyses, in A. Hauptmann, Th. Rehren, E. Pernicka and Ü. Yalcin (eds.) ‘The Beginnings of Metallurgy’ Der Anschnitt Beiheft 9 277-284
  • [8] Gramlich JW(1998)A new variable dispersion double-focusing plasma mass spectrometer with performance illustrated for Pb isotopes International Journal of Mass Spectrometry 181 51-58
  • [9] Shields WR(1965)Isotope studies of ancient lead American Journal of Archaeology 69 165-166
  • [10] Baxter MJ(1967)Isotope studies of ancient lead American Journal of Archaeology 71 63-77