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Tapping the Memory in Archaeological Materials

Published online by Cambridge University Press:  22 February 2011

Michael R. Notis ,
Charles E. Lyman ,
Heidi Moyer  and
Christopher Cowen
Michael R. Notis
Affiliation:
Department of Materials Science and Engineering, Lehigh University, Bethlehem, PA 18015
Charles E. Lyman
Affiliation:
Department of Materials Science and Engineering, Lehigh University, Bethlehem, PA 18015
Heidi Moyer
Affiliation:
Department of Materials Science and Engineering, Lehigh University, Bethlehem, PA 18015
Christopher Cowen
Affiliation:
Department of Materials Science and Engineering, Lehigh University, Bethlehem, PA 18015
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Extract

In the areas of archaeology, archaeometry, museum management and conservation science conflict often exists between the desire to preserve, and the desire to understand an artifact. This conflict exists because much laboratory analysis can be destructive. However, conservation can best be done when the materials and techniques that were used for making the object originally are understood. Thus there is a constant drive to develop non-destructive and/or microsample analysis procedures that are meaningful in terms of the statistical accuracy of the results and the added understanding that they provide. In addition to the availability of new microanalytical techniques, the scientific approach developed in materials science is of great value to the fields of archaeometry and conservation science. The ‘materials science approach’ involves the determination of structure and chemistry at various levels in the microstructural hierarchy, and includes the relationship between this structure and chemistry and the material's properties. On the other hand, the study of archaeological materials can be of great value to the materials scientist because these objects exist in a time frame not reproduceable in typical laboratory experiments.

Type
Research Article
Information
MRS Online Proceedings Library (OPL) , Volume 123: Symposium L – Materials Issues in Art and Archaeology I , 1988 , 183
Copyright
Copyright © Materials Research Society 1988

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References

1. Roeder, J.F., Sculac, J.F. and Notis, M.R., “The Precipitation of Iron in Early Smelted Copper from Timna”, p. 243–246 in Microbeam Analysis: 1984, Romig, A.D. Jr., and Goldstein, J.I., eds., San Francisco Press.Google Scholar
2. Craddock, P.T. and Meeks, N.D., ”Iron in Ancient Copper”, Archaeometry 29 [2] 187–204 (1987).Google Scholar
3. Biickerud, L. and Liljenvall, L.-M., ”Structure Development During Solidification of Some Copper Alloys”, Metals Technology, 463–476, December 1979.Google Scholar
4. Liu, K.H., Chan, H., Notis, M.R. and Pigott, V.C., “Analytical Electron Microscopy of Early Steel from the Baqah Valley, Jordan”, p. 261–263 in Microbeam Analysis 1984, Romig, A.D. Jr., and Goldstein, J.I., eds., San Francisco Press.Google Scholar
5. Notis, M.R., Pigott, V.C., McGovern, P.E., Liu, K.H., and Swann, C.P., “The Archaeometry of the Iron IA Steel”, pp. 272–278, plus plates, in The Late Bronze and Early Iron Ages of Central Transiordan: The Baq'ah Valley Proiect, 1977–1981. McGovern, P.E., The University Museum, University of Pennsylvania (1986).Google Scholar
6. Pigott, V.C. and Marder, A.R., “Prehistoric Iron in Southeast Asia: New Evidence from Northeast Thailand”, Southeast Asian Archaeology at the XV Pacific Science Congress, ed. D. Bayard. University of Otago Studies in Prehistoric Anthropology, vol 16. Dunedin, New Zealand: University of Otago.Google Scholar
7. Keh, A.S. and Leslie, W.C., “Recent Observations on Quench-Ageing and Strain-Ageing of Iron and Steel”, Materials Science Research, 1, 208–250 (1963).Google Scholar
8. Knox, R., ”Detection of Iron Carbide Structure in the Oxide Remains of Ancient Steel”, Archaeometry 6, 43–45 (1963).Google Scholar
9. Maxwell-Hyslop, K.R., Wheeler, T. Stech, Maddin, R. and Muhly, J.D., “An Iron Daggar from Tomb 240 at Tell Fara South”, Levant X, 112–115, plus plates (1978).Google Scholar
10. Murata, T. and Sasaki, M., “Rust Analysis of the Inariyama Sword”, p. 257–260 in Microbeam Analysis -1984, Romig, A.D. Jr., and Goldstein, J.I., eds., San Francisco Press.Google Scholar
11. Notis, M.R., “Analysis of Nonmetallic Phases in Metallic Artifacts: The Development of the Japanese Mokume Technique”, p. 245–256 in Archaeological Ceramics, Olin, J.S. and Franklin, A.D., eds., Smithsonian Institution Press (1982).Google Scholar
12. Chase, W.T. and Franklin, V.M., ”Early Chinese Black Mirrors and Pattern-etched Weapons”, Ars Orientalis, 11, 215–258 (1979).Google Scholar
13. Charles, J.A., “The First Sheffield Plate”, Antiquity XLII, 278-285 plus plates (1968).CrossRefGoogle Scholar
14. Mello, E., ”The Gilding of Lorenzo Ghiberti's ‘Doors of Paradise’ ”, Gold Bulletin 19 [4] 123–126 (1986).Google Scholar
15. Lechtman, H., ”Pre-Columbian Surface Metallurgy”, Scientific American, 250 [6] 56–63 (1984).CrossRefGoogle Scholar
16. Notis, M.R., ”Study of Japanese Mokume Techniques by Electron Microprobe Analysis”, MASCA Journal, 1 [3] 67–69 (1979).Google Scholar
17. Ziebold, T.O. and Ogilvie, R.E., ”Ternary Diffusion in Copper-Silver-Gold Alloys”, Trans. AIME, 239, 942–953 (1967).Google Scholar