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Firing technology and physicochemical basis for porcelain from the Xing kiln in the late sixth century
12 references·0 citing·43 second hop
Firing technology and physicochemical basis for porcelain from the Xing kiln in the late sixth century (2024)Firing technology and physicochemical bas…Colouring mechanism and firing process of celadon from the Xiangzhou kiln in Anyang, China, from the 5th-7th century (2023)Colouring mechanism and firin…Searching for the earliest use of limestone as a flux in Chinese high-fired ceramic glazes—evidence from Sr isotopic analysis of Chinese northern porcelain (2021)Searching for the earliest us…Nought-point-two per cent titanium dioxide: A key to Song ceramics? (2021)Nought-point-two per cent tit…Ceramic technology. How to characterise ceramic glazes (2020)Ceramic technology. How to ch…The struggle between thermodynamics and kinetics: Phase evolution of ancient and historical ceramics (2019)The struggle between thermody…The introduction of celadon production in North China: Technological characteristics and diversity of the earliest wares (2019)The introduction of celadon p…Raman analysis of cobalt blue pigment in blue and white porcelain: A reassessment (2017)Raman analysis of cobalt blue…Export Chinese blue-and-white porcelain: compositional analysis and sourcing using non-invasive portable XRF and reflectance spectroscopy (2017)Export Chinese blue-and-white…A scientific study on the Xing kiln of ancient China (2012)A scientific study on the Xin…The white porcelains from Dehua kiln site of China. Part II: Microstructure and its physicochemical basis (2010)The white porcelains from Deh…THE CHEMICAL ANALYSIS OF ORIENTAL CERAMIC BODY COMPOSITIONS: PART 1: WARES FROM NORTH CHINA (1994)THE CHEMICAL ANALYSIS OF ORIE…Determination of the Firing Temperature of Ancient Ceramics by Measurement of Thermal Expansion (1969)Determination of the Firing T…DETERMINATION OF THE FIRING TEMPERATURE OF ANCIENT CERAMICS BY MEASUREMENT OF THERMAL EXPANSION (1963)ANCIENT POTTERY: ITS PORE STRUCTURE (1977)Determination of the intensity of an early iron age conflagration at Tel-Hadar, Israel (1989)Gravimetric and spectroscopic studies of the chemical combination of moisture by as-fired and reheated terracotta (2010)X‐RAY FLUORESCENCE ANALYSIS OF MUSEUM OBJECTS: A NEW INSTRUMENT (1973)ATOMIC ABSORPTION TECHNIQUES IN ARCHAEOLOGY (1976)RAW MATERIALS FOR MAKING PORCELAIN AND THE CHARACTERISTICS OF PORCELAIN WARES IN NORTH AND SOUTH CHINA IN ANCIENT TIMES (1987)A COMPARISON OF INDUCTIVELY‐COUPLED PLASMA EMISSION SPECTROMETRY AND ATOMIC ABSORPTION SPECTROMETRY ANALYSIS ON STANDARD REFERENCE SILICATE MATERIALS AND CERAMICS (1995)A PROVENANCE STUDY OF POTTERY FROM ARCHAEOLOGICAL SITES NEAR CANOSA, PUGLIA (ITALY)* (1997)AN INVESTIGATION INTO THE RELATIONSHIP BETWEEN THE RAW MATERIALS USED IN THE PRODUCTION OF CHINESE PORCELAIN AND STONEWARE BODIES AND THE RESULTING MICROSTRUCTURES* (2011)Science and Civilisation in China (1963)X-Ray Fluorescence Spectrometry (XRF) in Geoarchaeology (2010)Characterisation of colourants on illuminated manuscripts by portable fibre optic UV-visible-NIR reflectance spectrophotometry (2014)On-site pXRF analysis of glaze composition and colouring agents of “Iznik” tiles at Edirne mosques (15th and 16th-centuries) (2018)On-site pXRF analysis of body, glaze and colouring agents of the tiles at the excavation site of Iznik kilns (2019)Portable X-ray Fluorescence (p-XRF) Uncertainty Estimation for Glazed Ceramic Analysis: Case of Iznik Tiles (2020)Raman spectroscopic library of natural and synthetic pigments (pre- ≈ 1850 AD) (1997)The invention of blue and purple pigments in ancient times (2006)The Invention of Blue and Purple Pigments in Ancient Times (2007)Non-Invasive On-Site Raman Study of Pigments and Glassy Matrix of 17th–18th Century Painted Enamelled Chinese Metal Wares: Comparison with French Enamelling Technology (2020)Spectroscopic investigation and comprehensive analysis of the polychrome clay sculpture of Hua Yan Temple of the Liao Dynasty (2020)Distinguishing Genuine Imperial Qing Dynasty Porcelain from Ancient Replicas by On-Site Non-Invasive XRF and Raman Spectroscopy (2022)LEAD GLAZES IN ANTIQUITY—METHODS OF PRODUCTION AND REASONS FOR USE* (1998)Chinese glazes: their origins, chemistry and recreation (2000)From Mine to Microscope. Advances in the Study of Ancient Technology (2009)Compositional analysis below the production region level: A case study of porcelain production at Dehua, Fujian, China (2021)Archaeological Ceramics (1984)Temperature evolution inside a pot during experimental surface (bonfire) firing (2010)The Oxford Handbook of Archaeological Ceramic Analysis (2016)Islamic and post Islamic ceramics from the town of Santarém (Portugal): The continuity of ceramic technology in a transforming society (2019)Compositional characterization of Etruscan earthen architecture and ceramic production (2020)Roman brick production technologies in Padua (Northern Italy) along the Late Antiquity and Medieval Times: Durable bricks on high humid environs (2022)Ceramic Petrography: The Interpretation of Archaeological Pottery & Related Artefacts in Thin Section (2013)Ceramic abandonment. How to recognise post-depositional transformations (2020)Ceramic raw materials: how to recognize them and locate the supply basins—mineralogy, petrography (2020)Ceramic raw materials: how to recognize them and locate the supply basins: chemistry (2020)Raman study of the microstructure, composition and processing of ancient Vietnamese (proto)porcelains and celadons (13-16th centuries) (2000)Microstructure, composition and processing of 15th century Vietnamese porcelains and celadons (2003)Non‐Destructive Determination of the Structure and Composition of Glazes by Raman Spectroscopy (2005)Studies of the Iranian medieval ceramics surface modified by pulsed tea CO2 and Nd:YAG lasers (2014)Chemical and microstructural comparison of the export porcelain from five different kilns excavated from Nanhai I shipwreck (2019)Micro-Computed Tomography with 3D Image Analysis to Reveal Firing Temperature Effects on Pore Systems in Archaeological and Ethnographic Ceramics (2022)Historical background of wood-fired ceramics firing in cross-flow kilns (2025)
this work references cited by second hop

References

  • 2020Ceramic technology. How to characterise ceramic glazes110 cited
  • 2017Raman analysis of cobalt blue pigment in blue and white porcelain: A reassessment49 cited
  • 2017Export Chinese blue-and-white porcelain: compositional analysis and sourcing using non-invasive portable XRF and reflectance spectroscopy48 cited
  • 2019The struggle between thermodynamics and kinetics: Phase evolution of ancient and historical ceramics43 cited
  • 1969Determination of the Firing Temperature of Ancient Ceramics by Measurement of Thermal Expansion36 cited
  • 1994THE CHEMICAL ANALYSIS OF ORIENTAL CERAMIC BODY COMPOSITIONS: PART 1: WARES FROM NORTH CHINA34 cited
  • 2012A scientific study on the Xing kiln of ancient China26 cited
  • 2019The introduction of celadon production in North China: Technological characteristics and diversity of the earliest wares24 cited
  • 2023Colouring mechanism and firing process of celadon from the Xiangzhou kiln in Anyang, China, from the 5th-7th century18 cited
  • 2010The white porcelains from Dehua kiln site of China. Part II: Microstructure and its physicochemical basis13 cited
  • 2021Nought-point-two per cent titanium dioxide: A key to Song ceramics?12 cited
  • 2021Searching for the earliest use of limestone as a flux in Chinese high-fired ceramic glazes—evidence from Sr isotopic analysis of Chinese northern porcelain12 cited

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