Usporedite metode

	Ceramic Thin-Section Petrography	Ceramic Typology	NAA Provenance
Područje	Arheologija	Arheologija	Arheologija
Obitelj	Process / pipeline	Process / pipeline	Process / pipeline
Godina nastanka	2013	1987	2003
Tvorac	Adapted from geological petrography; codified for archaeology by Patrick Sean Quinn	Developed across 20th-century archaeology; synthesized by Prudence M. Rice	Michael D. Glascock & Hector Neff (MURR provenance program)
Vrsta	Optical microscopic characterization of ceramic fabrics for provenance and technology	Attribute-based classification of pottery for chronology and cultural attribution	Multi-element compositional sourcing of ceramics and obsidian via INAA and multivariate grouping
Temeljni izvor	Quinn, P. S. (2013). Ceramic Petrography: The Interpretation of Archaeological Pottery & Related Artefacts in Thin Section. Archaeopress. ISBN: 9781905739592	Rice, P. M. (1987). Pottery Analysis: A Sourcebook. University of Chicago Press. ISBN: 9780226711188	Glascock, M. D., & Neff, H. (2003). Neutron Activation Analysis and Provenance Research in Archaeology. Measurement Science and Technology, 14(9), 1516-1526.
Drugi nazivi	Ceramic Petrography, Pottery Thin-Section Analysis, Petrographic Fabric Analysis, Optical Microscopy of Ceramic Fabrics	Pottery Typology, Ceramic Classification, Ware and Type Classification, Type-Variety Analysis	Neutron Activation Provenance, INAA Compositional Sourcing, Compositional Group Analysis, Chemical Provenance by NAA
Srodne	2	2	2
Sažetak	Ceramic thin-section petrography characterizes pottery by examining a wafer-thin slice of a sherd under a polarizing microscope, the same instrument geologists use to study rocks. Because most pottery is made from clay tempered with sand, crushed rock, grog, or shell, the mineral and rock inclusions visible in thin section carry a geological fingerprint of the raw materials, while the clay matrix and voids record how the pot was formed and fired. As Patrick Quinn's reference work sets out, the analyst identifies and quantifies these constituents, sorts sherds into petrographic fabric groups, and then relates each group's mineralogy to regional geology to infer where the pottery was made and how it was manufactured. It bridges the visual world of ceramic typology and the elemental world of chemical provenance.	Ceramic typology is the systematic classification of pottery into named groups — wares, types, and varieties — on the basis of shared attributes of form, fabric, surface treatment, decoration, and manufacturing technology. Because pottery is durable, ubiquitous, and changed rapidly in style, it is the archaeologist's most powerful tool for ordering sites and layers in time and for linking material to cultural traditions. As Prudence Rice's standard sourcebook sets out, a typology is built by recording consistent attributes, partitioning the assemblage into defined types, and arranging those types in a nested hierarchy that can then be quantified and compared across contexts. The resulting type frequencies become the raw material for relative dating, seriation, and the interpretation of trade, identity, and chronology.	NAA provenance is the use of instrumental neutron activation analysis (INAA) to determine where archaeological ceramics, obsidian, and other materials were made or obtained, by exploiting their high-precision multi-element chemical fingerprints. INAA irradiates a sample with neutrons, making its elements briefly radioactive, and measures the characteristic gamma rays they emit to quantify the concentrations of roughly thirty elements, including many trace and rare-earth elements at very low levels. As Glascock and Neff describe in their account of the technique's role in archaeology, the analytical power of NAA lies less in the measurement itself than in what follows: the statistical formation of compositional groups and the assignment of artifacts to those groups and to geological or production sources. This entry focuses specifically on that provenance application — building compositional groups and attributing artifacts by Mahalanobis distance — rather than on the instrumental measurement in general.