SZodixStudyAcademic Library
ShelvesOpen access
Study · an open academic library·Metadata from OpenAlex (CC0)·Shelves·OpenAlex metadata, de-duplicated
Undersized (12.5 mm diameter) glass beads with minimal amount (11 mg) of geochemical and archeological silicic samples for X‐ray fluorescence determination of major oxides
7 references·0 citing·32 second hop
Undersized (12.5 mm diameter) glass beads with minimal amount (11 mg) of geochemical and archeological silicic samples for X‐ray fluorescence determination of major oxides (2012)Undersized (12.5 mm diameter) glass beads…Glass bead with minimized amount (11 mg) of sample for X‐ray fluorescence determination of archaeological ceramics (2011)Glass bead with minimized amo…Wavelength-dispersive X-ray fluorescence analysis of ancient glasses* (2002)Wavelength-dispersive X-ray f…Chemical and Mineralogical Alteration of Ceramics from A Late Bronze Age Kiln At Kommos, Crete: the Effect On the Formation of A Reference Group (2001)Chemical and Mineralogical Al…MULTIVARIATE ANALYSIS OF THE ENERGY DISPERSIVE X‐RAY FLUORESCENCE RESULTS FROM BLUE AND WHITE CHINESE PORCELAINS* (1998)MULTIVARIATE ANALYSIS OF THE …ENERGY DISPERSIVE X‐RAY FLUORESCENCE ANALYSIS OF ANCIENT COPPER ALLOYS: EMPIRICAL VALUES FOR PRECISION AND ACCURACY (1996)ENERGY DISPERSIVE X‐RAY FLUOR…X‐RAY FLUORESCENCE ANALYSIS OF ARCHAIC GREEK POTTERY (1977)X‐RAY FLUORESCENCE ANALYSIS O…CHARACTERIZATION OF PACIFIC NORTHWEST COAST OBSIDIAN BY X‐RAY FLUORESCENCE ANALYSIS (1975)CHARACTERIZATION OF PACIFIC N…PETROGRAPHIC MODAL ANALYSIS ‐ A NECESSARY COMPLEMENT TO CHEMICAL ANALYSIS OF CERAMIC COARSE WARE (1986)A COMPARISON OF INDUCTIVELY‐COUPLED PLASMA EMISSION SPECTROMETRY AND ATOMIC ABSORPTION SPECTROMETRY ANALYSIS ON STANDARD REFERENCE SILICATE MATERIALS AND CERAMICS (1995)Loose‐powder technique for X‐ray fluorescence analysis of ancient pottery using a small (100 mg) powdered sample (2012)X-ray fluorescence analysis with micro glass beads using milligram-scale siliceous samples for archeology and geochemistry (2014)Characterization of archaeological ceramics from eastern Siberia by total-reflection X-ray fluorescence spectrometry and principal component analysis (2020)TURQUOISE SOURCES AND SOURCE ANALYSIS: MESOAMERICA AND THE SOUTHWESTERN U.S.A. (1977)Technological examination of Neolithic-Bronze Age pottery from central and southeast Europe and from the Near East (1981)Ceramic Compositional Analysis in Archaeological Perspective (1982)PHOSPHATES IN ARCHAEOLOGICAL FINDS: IMPLICATIONS FOR ENVIRONMENTAL CONDITIONS OF BURIAL* (2004)Post‐Depositional Elemental Alterations in Pottery: Neutron Activation Analyses of Surface and Core Samples* (2004)Ceramic abandonment. How to recognise post-depositional transformations (2020)X-Ray Fluorescence Analysis of Chinese Porcelains from K'ang Hsi to Modern Times Using Cd-109 Source (1984)Non-destructive characterization of oriental porcelain glazes and blue underglaze pigments using μ-EDXRF, μ-Raman and VP-SEM (2013)Early globalized industrial chain revealed by residual submicron pigment particles in Chinese imperial blue-and-white porcelains (2020)Non-Invasive On-Site pXRF Analysis of Coloring Agents, Marks and Enamels of Qing Imperial and Non-Imperial Porcelain (2023)The Characterization of Obsidian and its application to the Mediterranean Region (1964)Identification of the Sources of Hopewellian Obsidian in the Middle West (1969)COMPOSITION VARIATIONS IN OBSIDIAN SOURCES AND THE ARCHAEOLOGICAL IMPLICATIONS* (1973)Obsidian from Pulo di Molfetta (Bari, Southern Italy): provenance from Lipari and first recognition of a Neolithic sample from Monte Arci (Sardinia) (2007)Caucasus connections? New data and interpretations for Armenian obsidian in Northern Mesopotamia (2016)XRF technique (2019)X‐RAY FLUORESCENCE ANALYSES OF IRON AGE GLASS: BEADS FROM MEARE AND GLASTONBURY LAKE VILLAGES (1981)De l'origine du cobalt : du verre à la céramique (1996)Primary glass from Israel and the production of glass in Late Antiquity and the early Islamic period (2000)Archaeological and historical glasses: A bibliometric study (2009)Application of WDXRF in the provenance studies of Persian haft rang tiles: a statistical approach (2013)Red Earth, Green Glass, and Compositional Data: A New Procedure for Solid-State Elemental Characterization, Source Discrimination, and Provenience Analysis of Ochres (2020)Physical studies of archaeological materials (1983)NON‐DESTRUCTIVE SURFACE ANALYSIS OF ROMAN TERRA SIGILLATA: A POSSIBLE TOOL IN PROVENANCE STUDIES? (1984)The Determination of Lead Isotope Ratios by Multiple Collector Icp‐Ms: A Case Study of Early Bronze Age Artefacts and their Possible Relation With Ore Deposits of the Erzgebirge* (2003)PREHISTORIC COPPER PRODUCTION IN THE INN VALLEY (AUSTRIA), AND THE EARLIEST COPPER IN CENTRAL EUROPE* (2005)More questions than answers: the Southeast Asian Lead Isotope Project 2009–2012 (2013)
this work references cited by second hop

References

  • 1996ENERGY DISPERSIVE X‐RAY FLUORESCENCE ANALYSIS OF ANCIENT COPPER ALLOYS: EMPIRICAL VALUES FOR PRECISION AND ACCURACY107 cited
  • 2001Chemical and Mineralogical Alteration of Ceramics from A Late Bronze Age Kiln At Kommos, Crete: the Effect On the Formation of A Reference Group100 cited
  • 1975CHARACTERIZATION OF PACIFIC NORTHWEST COAST OBSIDIAN BY X‐RAY FLUORESCENCE ANALYSIS41 cited
  • 2011Glass bead with minimized amount (11 mg) of sample for X‐ray fluorescence determination of archaeological ceramics28 cited
  • 1998MULTIVARIATE ANALYSIS OF THE ENERGY DISPERSIVE X‐RAY FLUORESCENCE RESULTS FROM BLUE AND WHITE CHINESE PORCELAINS*25 cited
  • 2002Wavelength-dispersive X-ray fluorescence analysis of ancient glasses*22 cited
  • 1977X‐RAY FLUORESCENCE ANALYSIS OF ARCHAIC GREEK POTTERY21 cited

Cited by

No citing works inside the corpus for this window.

Only edges whose both ends are imported exist here. Widen the year window, or show the whole map. Back to the work