MSCE  Vol.5 No.9 , September 2017
Results from Multi Technique Investigation of Pottery from Different Early Neolithic Sites in Albania
Abstract: The archaeological excavations of the Neolithic sites in Albania show that this area has been the center of the confluence of different cultures with various levels of development and social organization. This is reflected in the pottery manufacturing, which during early Neolithic is classified in three major groups. The pottery from the Early Neolithic site at Kolsh, situated in north east, shows similarities with all the other cultures of central Balkans, the shards from the site Blaz in the north-west region show an Adriatic-Mediterraean character, while the south culture represented by Vashtemi and Podgorie sites appears to show cultural report with early Neolithic in the area of Thessaloniki. During the last years, the Institute of Applied Nuclear Physics of the University of Tirana and the Institute of Archaeology of the Center of Albanian Studies have initiated a cooperative study of the ceramic finds which aims at a better characterization and classification of the ceramic finds. In this context Optical Microscopy (OM), EDXRF, micro-XRF and XRD were used for the elemental and structural characterization of ceramic samples. Some data on the fabric texture, inclusions, decoration materials and elemental composition of the shards from pottery samples belonging to the mentioned Early Neolithic sites in Albania will be presented.
Cite this paper: Ndreçka, E. , Civici, N. , Beqiraj, E. and Gjipali, I. (2017) Results from Multi Technique Investigation of Pottery from Different Early Neolithic Sites in Albania. Journal of Materials Science and Chemical Engineering, 5, 10-26. doi: 10.4236/msce.2017.59002.

[1]   Maniatis, Y., Dilo, T., Civici, N., Pavlidou, E., Paraskevopoulos, K., Polychroniadis, E.K., Stamati, F., Hasa, R. and Gjipali, I. (2002) Technological Investigation of Illyrian Terracotta Aphrodite Figurines and Ceramic Vases from Belesh, Albania. Proceeding of International Seminar Albania-Greece Bilateral Cooperation 2000-2002, MASH, Tirana, 21 November 2002, 107-115.

[2]   Civici, N. (2007) Analysis of Illyrian Terracotta Figurines of Aphrodite and Other Ceramic Objects Using EDXRF Spectrometry. X-Ray Spectrometry, 36, 92-98.

[3]   Ruzi, E (2013) Investigating Compositional Variability among Early Neolithic Ceramics from Korça Region, Albania. Chronika, Institute for European and Mediterranean Archaeology, 3, 1-15.

[4]   Prendi, F. and Bunguri, A. (2013) The Prehistory of Albania. Institute of Archaeology, Tirana, Albania

[5]   Boardman, J., Edwards, I.E.S., Hammond, N.G.L. and Sollberger, E. (2008) The Prehistory of the Balkans, and the Middle East and the Aegean World, Tenth to Eighth Centuries B.C. In: Boardman, J., Edwards, I.E.S., Hammond, N.G.L. and Sollberger, E., Eds., The Cambridge Ancient History, Vol. III, Part I, 2nd Edition, Cambridge University Press, Cambridge, 187-207.

[6]   Allen, S.E. and Gjipali, I. (2013) New Light on the Early Neolithic in Albania: The Southern Albania Neolithic Archaeological Project (SANAP) 2006-2013. Proceedings of the International Congress of Albanian Archaeological Studies, 65th Anniversary of Albanian Archaeology, Tirana, 21-22 November 2013, 107-120.

[7]   Van Espen, P., Nullens, H. and Adams, F. (1977) A Computer Analysis of X-Ray Fluorescence Spectra. Nuclear Instruments and Methods, 142, 243-250.

[8]   Orlic, I., Makjanic, J., Ross, J. and Valkovic, D. (1988) A General Way of Solving Matrix Effect Problems in Elemental Analysis by EDXRFS. X-Ray Spectrom, 17, 139-143.

[9]   Anderman, G. and Kemp, J.W. (1958) Scattered X-Ray as Internal Standarts in X-Ray Emission Spectroscopy. Analytical Chemistry, 30, 1306.

[10]   Potts, P.J., Tindle, A.G. and Webb, P.C. (1992) Geochemical Reference Materials Compositions. Whittles Publishing, London.

[11]   IAEA AQCS (2002-2003) Reference Materials Catalogue.

[12]   Civici, N. and Van Grieken, R. (1997) Energy Dispersive X-Ray Fluorescence Analysis in Geochemical Mapping. X-Ray Spectrometry, 26, 147-152.<147::AID-XRS193>3.0.

[13]   Ndreçka, E., Vataj, E., Dilo, T., Gjipali, I. and Civici, N. (2014) Application of EDXRF Spectrometry for the Analysis of Ancient Ceramics. 2nd International Conference on Radiation and Dosimetry in Various Fields of Research, Nis, Serbia, 24-26 May 2014.

[14]   Bondarenko, I., Treiger, B., Van Grieken, R. and Van Espen, P. (1996) Spectrochim. Electrochimica Acta, 51B, 441.

[15]   Aitchison, J. (1986) The Statistical Analysis of Compositional Data. Chapman and Hall, London, 416 p.

[16]   Rye, O.S. (1981) Pottery Technology: Principles and Reconstruction. Taraxacum, Washington.

[17]   Tite, M.S. (2008) Ceramic Production, Provenance and Use—A Review. Archaeometry, 50, 216-231.

[18]   Fabbri, B. and Gualtieri, S. (2008) Alterazione postdeposizionale di ceramiche neolitiche con formazione di macropori e arricchimento di fosforo. [Postdepositional Alteration of Neolithic Ceramics with Macrophor Formation and Phosphorous Enrichment.] Rendiconti online Società Geologica Italiana, 2, 361-362.

[19]   Maritan, L. and Mazzoli, C. (2004) Phosphate in Archaeological Finds: Implications for Environmental Conditions of Burial. Archaeometry, 46, 673-683.

[20]   Bugoi, R., Constantinescu, B., Pantos, E. and Popovici, D. (2008) Investigation of Neolithic Ceramic Pigments using Synchrotron Radiation X-Ray Diffraction. Powder Diffraction, 23, 195-199.

[21]   Papadopouloua, D., Sakalisa, A., Merousisc, N. and Tsirliganis, N.C. (2007) Study of Decorated Archeological Ceramics by Micro X-Ray Fluorescence Spectroscopy. Nuclear Instruments and Methods in Physics Research A, 580, 743-746.

[22]   Lukacevica, I. and Rajkovic, D. (2015) Non-Invasive Analyses of Ancient Ceramics Colorants. Croatica Chemica Acta, 88, 53-58.

[23]   Capela, J., Huertas, F., Pozzuoli, A. and Linares, J. (2006) Red Ochre Decorations in Spanish Neolithic Ceramics: A Mineralogical and Technological Study. Journal of Archaeological Science, 33, 1157-1166.