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Electron microprobe analysis of ancient ceramics: A case study from Romania

机译:古代陶瓷的电子探针分析:以罗马尼亚为例

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摘要

Electron microprobe analysis (EMPA) is a widely applied technique in the geological sciences and can also be used successfully for archaeometric purposes, e.g. for the study of ceramics. The main advantage is that it allows the identification of components with a wide range of sizes, independent of their nature as primary minerals or firing products. In addition, the minerals can be chemically mapped using Backscattered Electron Image (BSEI) coupled with precisely positioned electron microprobe analysis. Limitations of the method, however, include difficulties with the identification of extremely fine-grained or poorly crystallized phases. Low analytical totals and the lack of any structural information are additional problems. As an example, we focus here on Late Bronze Age ceramic pottery from Ilis.ua, Transylvania (Romania) and particularly consider the compositions of certain mineral phases such as non-plastic inclusions, matrix and newly-formed compounds with a view to obtaining information on the source materials and their provenance, as well as the technological conditions of ceramic production. The microprobe data indicate the presence of plagioclase (ranging from oligoclase to labradorite), K-feldspar, partly altered muscovite, quartz and an illite-type matrix. In addition, several phases were formed during the firing process, such as a Ca-"illite", An-rich plagioclase, K-feldspar and a SiO_2-Al_2O_3 compound close to pyrophyllite. The matrix minerals are commonly associated with high concentrations of elements such as Fe, Al, or P, which could either be held within a new lattice structure or may simply adhere to the mineral surface. The main finding of our study is that illite-type silty clays and alluvial sands from the neighbourhoods of the site were used to make pottery that was fired at ~950 ℃ temperature. Our results also indicate considerable potential for related follow-up studies.
机译:电子微探针分析(EMPA)是地质科学中广泛应用的技术,也可以成功地用于考古学目的,例如用于陶瓷研究。其主要优点是,它可以识别各种尺寸的成分,而与它们作为主要矿物或焙烧产品的性质无关。此外,可以使用反向散射电子图像(BSEI)结合精确定位的电子探针分析对矿物进行化学绘图。然而,该方法的局限性包括难以鉴定极细晶粒或结晶不良的相。低的分析总数和缺乏任何结构信息是另外的问题。例如,我们在这里集中于罗马尼亚特兰西瓦尼亚Ilis.ua的晚期青铜时代陶瓷,并特别考虑某些矿物相的组成,例如非塑料夹杂物,基体和新形成的化合物,以获取信息。在原料和来源上,以及陶瓷生产的技术条件上。微探针数据表明存在斜长石(从低聚石到拉长石),钾长石,部分蚀变的白云母,石英和伊利石型基质。另外,在焙烧过程中形成了多个相,例如Ca-“伊利石”,富含An的斜长石,K-长石和靠近叶蜡石的SiO_2-Al_2O_3化合物。基体矿物通常与高浓度的元素(例如,Fe,Al或P)相关,这些元素可以保留在新的晶格结构中,也可以简单地附着在矿物表面。我们研究的主要发现是用伊利石型粉质粘土和冲积砂制成了在〜950℃温度下烧制的陶器。我们的结果还表明相关后续研究的巨大潜力。

著录项

  • 来源
    《Applied clay science》 |2011年第3期|p.466-475|共10页
  • 作者单位

    Babes - Bolyai University, Geology Department, 1 Kogalniceanu Str., RO-400084 Cluj-Napoca, Romania,University of Salzburg, Department of Geography and Geology, 34 Hellbrunner Str., A-5020 Salzburg, Austria;

    Babes - Bolyai University, Geology Department, 1 Kogalniceanu Str., RO-400084 Cluj-Napoca, Romania,University of Salzburg, Department of Geography and Geology, 34 Hellbrunner Str., A-5020 Salzburg, Austria;

    Babes - Bolyai University, Geology Department, 1 Kogalniceanu Str., RO-400084 Cluj-Napoca, Romania;

  • 收录信息 美国《科学引文索引》(SCI);美国《工程索引》(EI);美国《生物学医学文摘》(MEDLINE);
  • 原文格式 PDF
  • 正文语种 eng
  • 中图分类
  • 关键词

    electron microprobe analysis bronze age ceramicsromania;

    机译:电子探针分析青铜时代陶瓷;

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