The Significance of Applied Mineralogy in Archaeometry

A special issue of Minerals (ISSN 2075-163X). This special issue belongs to the section "Mineral Geochemistry and Geochronology".

Deadline for manuscript submissions: closed (31 October 2024) | Viewed by 2157

Special Issue Editors


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Guest Editor
Earth Science Department, University of Pisa, Pisa, Toscana, Italy
Interests: ore geology; mineralogy; archaeometry; elemental mapping; micro-LIBS; LIBS; geopolymers

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Guest Editor
Department of Earth Sciences, Università of Pisa, Via Santa Maria 53, 56126 Pisa, Italy
Interests: applied petrography; urban geology; environmental mineralogy; geomaterials; clays and clay minerals; cultural heritage
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Special Issue Information

Dear Colleagues,

In this Special Issue, we would like to focus attention on applied mineralogy in archaeometry and its many nuances.

Applied mineralogy is a discipline that characterizes and analyzes minerals, rocks, and other geological materials. In the field of archaeometry, it is crucial for gaining insight into the history and origin of ancient artifacts and materials.

Archaeologists use mineralogical analysis to determine the raw materials used in artifact creation and to understand the geological processes involved. Techniques such as X-ray diffraction and X-ray fluorescence are used to identify crystal structures and chemical composition. Additionally, radiometric dating, which measures the radioactive decay of certain minerals, provides information on the age of artifacts such as ceramics, glass, and stone tools.

Applied mineralogy also helps to trace the movement and origin of ancient materials and artifacts, aiding in the understanding of trade networks and cultural interactions.

In conclusion, applied mineralogy plays a vital role in archaeometry, offering valuable information about the materials, processes, and history of ancient artifacts. It helps to reconstruct historical events and cultural interactions, contributing to a better understanding of the past.

Dr. Stefano Pagnotta
Prof. Dr. Marco Lezzerini
Guest Editors

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Keywords

  • portable and non-destructive techniques
  • new methods in applied mineralogy for archaeometry
  • ancient building materials
  • ancient provenance
  • raw material and manufacts circulation
  • metal smelting and melting
  • archeomineralogy
  • archeometallurgy

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Published Papers (2 papers)

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Research

23 pages, 16528 KiB  
Article
Mortars in the Archaeological Site of Hierapolis of Phrygia (Denizli, Turkey) from Imperial to Byzantine Age
by Matteo Maria Niccolò Franceschini, Sara Calandra, Silvia Vettori, Tommaso Ismaelli, Giuseppe Scardozzi, Maria Piera Caggia and Emma Cantisani
Minerals 2024, 14(11), 1143; https://doi.org/10.3390/min14111143 - 11 Nov 2024
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Abstract
Hierapolis of Phrygia, an archaeological site in southwestern Turkey, has been a UNESCO World Heritage Site since 1988. During archaeological campaigns, 71 mortar samples from public buildings were collected, dating from the Julio-Claudian to the Middle Byzantine period. The samples were analyzed using [...] Read more.
Hierapolis of Phrygia, an archaeological site in southwestern Turkey, has been a UNESCO World Heritage Site since 1988. During archaeological campaigns, 71 mortar samples from public buildings were collected, dating from the Julio-Claudian to the Middle Byzantine period. The samples were analyzed using a multi-analytical approach including polarized optical microscopy (POM), digital image analysis (DIA), X-ray powder diffraction (XRPD) and SEM–EDS to trace the raw materials and understand the evolution of mortar composition and technology over time. During the Roman period, travertine and marble were commonly used in binder production, while marble dominated in the Byzantine period. The aggregates come mainly from sands of the Lycian Nappe and Menderes Massif, with carbonate and silicate rock fragments. Variations in composition, average size and circularity suggest changes in raw material sources in both Roman and Byzantine periods. Cocciopesto mortar was used in water-related structures from the Flavian to the Severan period, but, in the Byzantine period, it also appeared in non-hydraulic contexts. Straw became a common organic additive in Byzantine renders, marking a shift from the exclusively inorganic aggregates of Roman renders. This study illustrates the evolving construction technologies and material sources used throughout the city’s history. Full article
(This article belongs to the Special Issue The Significance of Applied Mineralogy in Archaeometry)
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18 pages, 4239 KiB  
Article
The Role of Mineral and Organic Composition on the Phosphorus Content of Prehistoric Pottery (Middle Neolithic to Late Bronze Age) from NW Spain
by María Guadalupe Castro González, María Pilar Prieto Martínez and Antonio Martínez Cortizas
Minerals 2024, 14(9), 880; https://doi.org/10.3390/min14090880 - 29 Aug 2024
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Abstract
Phosphorus is a key element for identifying past human activity. Recently, phosphorus analyses have been extended to archaeological objects, aiming at distinguishing how depositional contexts contribute to its enrichment. In archaeological pottery, phosphorus might depend on several manufacturing and postdepositional processes (i.e., addition [...] Read more.
Phosphorus is a key element for identifying past human activity. Recently, phosphorus analyses have been extended to archaeological objects, aiming at distinguishing how depositional contexts contribute to its enrichment. In archaeological pottery, phosphorus might depend on several manufacturing and postdepositional processes (i.e., addition of organic temper, pigments, diagenetic incorporation). We analyzed by XRD, XRF, and mid-infrared (FTIR-ATR) spectroscopy 178 pots from eight NW Spain archaeological sites. These sites encompass different chronologies, contexts, and local geology. The phosphorus content was highly variable (224–27,722 mg kg−1) overall but also between archeological sites (1644 ± 487 to 13,635 ± 6623 mg kg−1) and within archaeological sites (4–36, max/min ratio). No phosphate minerals were identified by XRD nor FTIR-ATR, but correlations between phosphorus content and MIR absorbances showed maxima at 1515 and 980 cm−1, suggesting the presence of two sources: one organic (i.e., phosphorylated aromatic compounds) and another inorganic (i.e., albite and K-feldspar). Phosphorylated aromatics were most likely formed during pottery firing and were preserved due to their high resistance to temperature and oxidation. Meanwhile, albite and K-feldspar are among the P-bearing minerals with higher P concentrations. Our results suggest that P content is related to intentional and non-intentional actions taken in the pottery production process. Full article
(This article belongs to the Special Issue The Significance of Applied Mineralogy in Archaeometry)
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