SZodixStudyAcademic Library
ShelvesOpen access
Study · an open academic library·Metadata from OpenAlex (CC0)·Shelves·OpenAlex metadata, de-duplicated
A ‘match–no match‘ numerical and graphical kernel density approach to interpreting lead isotope signatures of ancient artefacts
16 references·6 citing·41 second hop
A ‘match–no match‘ numerical and graphical kernel density approach to interpreting lead isotope signatures of ancient artefacts (2020)A ‘match–no match‘ numerical and graphica…Beyond Provenance: New Approaches to Interpreting the Chemistry of Archaeological Copper Alloys (2018)Beyond Provenance: New Approa…Beyond Provenance (2018)Beyond ProvenanceApplication of Kernel Density Estimates to Lead Isotope Compositions of Bronzes from Ningxia, North‐West China (2018)Application of Kernel Density…The Berthouville silver treasure and Roman luxury (2015)The Berthouville silver treas…Form and flow: the ‘karmic cycle’ of copper (2015)Form and flow: the ‘karmic cy…A New Method For Combining Lead Isotope and Lead Abundance Data to Characterize Archaeological Copper Alloys* (2014)A New Method For Combining Le…Elemental and Isotopic Analysis of Ancient Ceramics and Glass (2013)Elemental and Isotopic Analys…A new interpretative approach to the chemistry of copper-alloy objects: source, recycling and technology (2012)A new interpretative approach…A GEOLOGICAL PERSPECTIVE ON THE USE OF Pb ISOTOPES IN ARCHAEOMETRY (2011)A GEOLOGICAL PERSPECTIVE ON T…The identification of lead ingots from the Roman mines of Cartagena (Murcia, Spain): the role of lead isotope analysis (2010)The identification of lead in…Tracing Roman lead sources using lead isotope analyses in conjunction with archaeological and epigraphic evidence—a case study from Augustan/Tiberian Germania (2009)Tracing Roman lead sources us…The identification of lead ingots from the Roman mines of Cartagena: the rôle of lead isotope analysis (2009)The identification of lead in…Sample Size and Related Issues in the Analysis of Lead Isotope Data (2000)Sample Size and Related Issue…The petrology of archaeological artefacts (1984)The petrology of archaeologic…The Petrology of archaeological artefacts (1983)The Petrology of archaeologic…Isotope Studies of Ancient Lead (1967)Isotope Studies of Ancient Le…Tracing socioeconomic change and emerging elites in 4th–3rd century BCE: Metalwork from the Amber Road Corridor (2026)Tracing socioeconomic change …Determining the origins of Phoenician silver: Exploring the potential of machine learning for lead isotope analysis (2026)Determining the origins of Ph…From mixing line to mixing surface: a new perspective to mixing and recycling in archaeological science (2025)From mixing line to mixing su…Cyprus in the ‘long’ 3rd millennium BCE: a critical perspective on metal procurement, production and circulation (2025)Cyprus in the ‘long’ 3rd mill…Lead isotope analysis for provenancing ancient materials: a comparison of approaches (2023)Lead isotope analysis for pro…Looking Back, Looking Forward: Materials Science in Art, Archaeology, and Art Conservation (2021)Looking Back, Looking Forward…Eneolithic and Early Bronze Age copper artefacts from the Balkans and their relation to Serbian copper ores (1993)LEAD ISOTOPE DATA FROM THE ISOTRACE LABORATORY, OXFORD: ARCHAEOMETRY DATA BASE 1, ORES FROM THE WESTERN MEDITERRANEAN * (1995)Metal provenancing using isotopes and the Oxford archaeological lead isotope database (OXALID) (2009)The Provenance, Use, and Circulation of Metals in the European Bronze Age: The State of Debate (2018)A geochemical characterization of lead ores in China: An isotope database for provenancing archaeological materials (2019)Geological constraints on the use of lead isotopes for provenance in archaeometallurgy (2020)Bronze Age Copper Sources in the Mediterranean: A New Approach (1982)Archaeological Chemistry (2008)Bronze Age metal circulation in China (2017)Revisiting lead isotope data in Shang and Western Zhou bronzes (2017)The Salcombe metal cargoes: New light on the provenance and circulation of tin and copper in Later Bronze Age Europe provided by trace elements and isotopes (2022)The Laurion Mines: A Reconsideration (1968)Modern analytical methods in art and archaeology (2000)Local mining or lead importation in the Roman province of Africa Proconsularis? Lead isotope analysis of curse tablets from Roman Carthage, Tunisia (2011)Mobile Technologies in the Ancient Sahara and Beyond (2020)Environmental Impact of Roman Mining and Metallurgy and Its Correlation with the Archaeological Evidence: A European Perspective (2023)Art and Agency: An Anthropological Theory (1999)Art and Agency: An Anthropological Theory (2000)The Oxford Handbook of Material Culture Studies (2012)Bronze Age Copper Produced at Mitterberg, Austria, and its Distribution (2016)The faerie smith meets the bronze industry: Magic versus science in the interpretation of prehistoric metal‐making (1995)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)Mining and metal production through the ages (2004)More questions than answers: the Southeast Asian Lead Isotope Project 2009–2012 (2013)Characterising copper-based metals in Britain in the first millennium AD: a preliminary quantification of metal flow and recycling (2015)Moving metals III: Possible origins for copper in Bronze Age Denmark based on lead isotopes and geochemistry (2018)LEAD ISOTOPE DATA FROM THE ISOTRACE LABORATORY, OXFORD: ARCHAEOMETRY DATA BASE 4, ORES FROM CYPRUS (1997)X-ray Fluorescence analytical criteria to assess the fineness of ancient silver coins: Application on Ptolemaic coinage (2011)Inscriptions and Port Societies (2020)Roman Port Societies (2020)The cultural biography of objects (1999)Analytical Chemistry in Archaeology (2007)X-Ray Fluorescence Spectrometry (XRF) in Geoarchaeology (2010)Panlongcheng, Zhengzhou and the Movement of Metal in Early Bronze Age China (2019)Production and circulation of bronzes among the regional states in the Western Zhou Dynasty (2020)Social hierarchy and the choice of metal recycling at Anyang, the last capital of Bronze Age Shang China (2020)Destinations in Mind (2021)Composition, raw material provenance, and manufacture of a unique late Roman silver folding stand (quadripus) from Kőszárhegy, Hungary (2023)Forgery Beyond Deceit (2023)Stable lead isotope studies of central taurus ore sources and related artifacts from eastern mediterranean chalcolithic and bronze age sites (1991)Shifting networks and mixing metals: Changing metal trade routes to Scandinavia correlate with Neolithic and Bronze Age transformations (2021)
this work references cited by second hop

References

  • 1967Isotope Studies of Ancient Lead214 cited
  • 2011A GEOLOGICAL PERSPECTIVE ON THE USE OF Pb ISOTOPES IN ARCHAEOMETRY167 cited
  • 2015Form and flow: the ‘karmic cycle’ of copper142 cited
  • 2012A new interpretative approach to the chemistry of copper-alloy objects: source, recycling and technology133 cited
  • 2014A New Method For Combining Lead Isotope and Lead Abundance Data to Characterize Archaeological Copper Alloys*81 cited
  • 2009The identification of lead ingots from the Roman mines of Cartagena: the rôle of lead isotope analysis80 cited
  • 2009Tracing Roman lead sources using lead isotope analyses in conjunction with archaeological and epigraphic evidence—a case study from Augustan/Tiberian Germania72 cited
  • 2018Beyond Provenance66 cited
  • 2015The Berthouville silver treasure and Roman luxury63 cited
  • 2018Beyond Provenance: New Approaches to Interpreting the Chemistry of Archaeological Copper Alloys57 cited
  • 2000Sample Size and Related Issues in the Analysis of Lead Isotope Data37 cited
  • 2013Elemental and Isotopic Analysis of Ancient Ceramics and Glass34 cited
  • 1983The Petrology of archaeological artefacts32 cited
  • 1984The petrology of archaeological artefacts31 cited
  • 2018

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

Application of Kernel Density Estimates to Lead Isotope Compositions of Bronzes from Ningxia, North‐West China
14 cited
  • 2010The identification of lead ingots from the Roman mines of Cartagena (Murcia, Spain): the role of lead isotope analysis12 cited
  • Cited by

    • 2021Looking Back, Looking Forward: Materials Science in Art, Archaeology, and Art Conservation16 cited
    • 2023Lead isotope analysis for provenancing ancient materials: a comparison of approaches12 cited
    • 2025Cyprus in the ‘long’ 3rd millennium BCE: a critical perspective on metal procurement, production and circulation0 cited
    • 2025From mixing line to mixing surface: a new perspective to mixing and recycling in archaeological science0 cited
    • 2026Determining the origins of Phoenician silver: Exploring the potential of machine learning for lead isotope analysis0 cited
    • 2026Tracing socioeconomic change and emerging elites in 4th–3rd century BCE: Metalwork from the Amber Road Corridor0 cited