Skip to main content

ETHNOS_APP

Home • Search • Journals • List 0

Evaluation of Possible Contamination Sources in the 14 C Analysis of Bone Samples by FTIR Spectroscopy

Bibliographic Data

ID9245270
AuthorsMarisa D'Elia, Gabriella Gianfrate, Gianluca Quarta (0000-0002-3648-1411), Livia Giotta, Gabriele Giancane (0000-0001-5089-5429), Lucio Calcagnile (0000-0001-8800-218X)
Year2007
Volume49
Issue2
Pages201-210
Publication date2007-01-01
Open AccessYes
TypeARTICLE
VenueRadiocarbon (JOURNAL)
Journal identifiersISSN: 0033-8222 • E-ISSN: 1945-5755
PublisherCambridge University Press (CUP) (PUBLISHER)
DOI10.1017/s0033822200042120
OpenAlexW1865680352
LanguageEN
Citations received25
References cited26

In the sample preparation laboratory of CEDAD (CEnter for DAting and Diagnostics) of the University of Lecce, a protocol for the quality control of bone samples based on infrared spectroscopy has been set up. The protocol has been recently developed as a check-in test with the aim to identify the presence of collagen in the samples, assess its preservation status, and determine whether the submitted bone samples are suitable for accelerator mass spectrometry (AMS) radiocarbon measurements or not. We discuss in this paper the use of infrared-based techniques to identify the presence of “contaminants” such as restoration and consolidation materials, humic acids, and soil carbonates, which, if not removed by the sample processing chemistry, can be sources of exogenous carbon and can thus influence the accuracy of the 14 C determinations. Bone samples recovered in well-defined and previously dated archaeological contexts were intentionally contaminated, submitted to the standard method for collagen extraction and purification, and then characterized by means of Fourier transform infrared (FTIR) spectroscopy analyses performed in attenuated total reflection (ATR) mode before being combusted, converted to graphite, and measured by AMS. The study shows that the ATR-FTIR technique is an extremely powerful method for the identification of both the collagen and its contaminants and can supply important information during the selection and processing of samples to be submitted for 14 C dating

Attenuated total reflection · Chromatography · Contamination · Contamination control · Fourier transform infrared spectroscopy · Infrared spectroscopy · Mass spectrometry · Mineralogy · Physics · Radiochemistry · Sample Preparation · Archaeology and ancient environmental studies · Chemistry · Environmental Science · Forensic Anthropology and Bioarchaeology Studies · Pleistocene-Era Hominins and Archaeology · Environmental Chemistry · Spectroscopy

  • From Model to Practice

    Open Access•Courtney Ryder, Gerardo Celis et al.•Archaeometry•2026

  • Isotopic comparison of gelatin extracted from bone powder with that from bone chunk and development of a framework for comparison of different extraction methods

    Open Access•T Tsutaya, Takashi Gakuhari et al.•Journal of Archaeological Science…•2016

  • Direct radiocarbon dates of mid Upper Palaeolithic human remains from Dolní Věstonice II and Pavlov I, Czech Republic

    Open Access•Helen Fewla, Sahra Talamo et al.•Journal of Archaeological Science…•2019

  • Toward Legal, Ethical, and Culturally Informed Care of Animal Remains in American Museum Collections

    Open Access•Chance Ward, Jimmy Arterberry et al.•Advances in Archaeological Practice•2024

  • Evaluating the efficacy of collagen isolation using stable isotope analysis and infrared spectroscopy

    Open Access•Robin B Trayler, Pedro Valencia Landa et al.•Journal of Archaeological Science•2023

  • A new statistical approach for determining the crystallinity of heat-altered bone mineral from FTIR spectra

    Open Access•T J U Thompson, Tim Thompson et al.•Journal of Archaeological Science•2012

  • Pre-screening techniques for identification of samples suitable for radiocarbon dating of poorly preserved bones

    Open Access•Fiona Brock, T F G Higham et al.•Journal of Archaeological Science•2009

  • ATR-FTIR pre-screening analyses for determining radiocarbon datable bone samples from the Kings' Valley, Egypt

    Open Access•Anita Quiles, Matthieu Lebon et al.•Journal of Archaeological Science•2022

  • Refining near-infrared spectroscopy for collagen quantification

    Open Access•Courtney Ryder, Gerardo Celis et al.•Journal of Archaeological Science•2025

  • “Here we go again”

    Open Access•Sahra Talamo, Helen Fewla et al.•STAR Science & Technology of…•2021

  • Accuracy vs. Precision

    Open Access•David K Wright•African Archaeological Review•2017

  • Experimental Observations on Processing Leather, Skin, and Parchment for Radiocarbon Dating

    Open Access•Margaret A Davis, Brendan J Culleton et al.•Radiocarbon•2024

  • Using a Silica Substrate to Monitor the Effectiveness of Radiocarbon Pretreatment

    Open Access•Michael W Dee, F Brock et al.•Radiocarbon•2011

  • The Strange Case of the Ankhpakhered Mummy

    Open Access•Gianluca Quarta, S Malgora et al.•Radiocarbon•2013

  • Radiocarbon Dating of the Early Bronze Age Cemetery at Arano, Verona, Northern Italy

    Open Access•Erio Valzolgher, John Meadows et al.•Radiocarbon•2012

  • Sample Selection, Characterization and Choice of Treatment for Accurate Radiocarbon Analysis—insights From the Eth Laboratory

    Open Access•I Hajdas, Giulia Guidobaldi et al.•Radiocarbon•2024

  • Testing the Use of Xad Resin to Remove Synthetic Contamination From Archaeological Bone Prior to Radiocarbon Dating

    Open Access•L G van der Sluis, Antoine Zazzo et al.•Radiocarbon•2023

  • Dating Reassembled Collagen from Fossil Bones

    Open Access•Larisa Goldenberg, Lior Regev et al.•Radiocarbon•2017

  • Integrating Non-Destructive Ion Beam Analysis Methods and AMS Radiocarbon Dating for the Study of Ancient Bronze Statues

    Open Access•Gianluca Quarta, Lucio Calcagnile et al.•Radiocarbon•2012

  • Testing the Effectiveness of Protocols for Removal of Common Conservation Treatments for Radiocarbon Dating

    Open Access•Fiona Brock, Michael Dee et al.•Radiocarbon•2018

  • A Glance to the Fragmenta Membranea Manuscript Collection Through Ftir and Radiocarbon Analyses

    Open Access•Tuuli Kasso, M Kytökari et al.•Radiocarbon•2023

  • Rapid Quantification of Bone Collagen Content by ATR-FTIR Spectroscopy

    Open Access•M Lebon, I Reiche et al.•Radiocarbon•2016

  • The Copper Age Mound Necropolis in Salve, Lecce, Italy

    Open Access•Gianluca Quarta, Ida Tiberi et al.•Radiocarbon•2014

  • Assessment of Infinite-Age Bones from the Upper Thames Valley, UK, as 14 C Background Standards

    Open Access•G T Cook, T F G Higham et al.•Radiocarbon•2012

  • Experimental bone combustion and collagen preservation

    Open Access•Paula Vitale, María Marcela Bax et al.•Archaeometry•2026

  • New Method of Collagen Extraction for Radiocarbon Dating

    Open Access•R Longin•Nature•1971

  • The survival of organic matter in bone

    Open Access•M J Collins, C M Nielsen–Marsh et al.•Archaeometry•2002

  • A Review of Current Approaches in the Pretreatment of Bone for Radiocarbon Dating by AMS

    Open Access•R E M Hedges, G J VAN KLINKEN•Radiocarbon•1992

  • States of preservation of bones from prehistoric sites in the Near East

    Open Access•Stephen Weiner, Ofer Bar‐yosef et al.•Journal of Archaeological Science•1990

  • Solubilities of bone mineral from archaeological sites

    Open Access•Francesco Berna, Alan Matthews et al.•Journal of Archaeological Science•2004

  • Black-Coloured Bones in Hayonim Cave, Israel

    Open Access•Ruth Shahack-Gro, Ofer Bar‐yosef et al.•Journal of Archaeological Science•1997

  • Infrared and Isotopic Evidence for Diagenesis of Bone Apatite at Dos Pilas, Guatemala

    Open Access•Lori E Wright, H P Schwarcz•Journal of Archaeological Science•1996

  • Experiments on Collagen-Humic Interactions

    Open Access•Gert J Van Klinken, Robert E M Hedges•Journal of Archaeological Science•1995

  • Bone Collagen Quality Indicators for Palaeodietary and Radiocarbon Measurements

    Open Access•G J VAN KLINKEN•Journal of Archaeological Science•1999

  • Consolidation of Archaeological Bone

    Jessica S Johnson•Journal of Field Archaeology•1994

  • Bone Preservation in Hayonim Cave (Israel)

    Open Access•M C Stiner, L Kuhn et al.•Journal of Archaeological Science•2001

  • Differential Burning, Recrystallization, and Fragmentation of Archaeological Bone

    Open Access•M C Stiner, L Kuhn et al.•Journal of Archaeological Science•1995

  • Mineralogical and compositional changes in bones exposed on soil surfaces in Amboseli National Park, Kenya

    Open Access•Clive N Trueman, Clive N G Trueman et al.•Journal of Archaeological Science•2004

  • Patterns of Diagenesis in Bone I

    Open Access•Christina M Nielsen-Marsh, Robert E M Hedges•Journal of Archaeological Science•2000

  • Quality Controlled Radiocarbon Dating of Bones and Charcoal from the Early Pre-Pottery Neolithic B (PPNB) of Motza (Israel)

    Open Access•Meirav Yizhaq, Genia Mintz et al.•Radiocarbon•2005

  • Bone diagenesis

    Open Access•R E M Hedges•Archaeometry•2002

  • Morphological taphonomic transformations of fossil bones in continental environments, and repercussions on their chemical composition

    Open Access•Yolanda Fernández-Jalvo, Y Fernández–Jalvo et al.•Archaeometry•2002

  • The crystallinity of ancient bone and dentine

    Open Access•Ina Reiche, Colette Vignaud et al.•Archaeometry•2002

  • The taphonomy of cooked bone

    Open Access•Stephen J Robert, S J Roberts et al.•Archaeometry•2002

Citations per year1.47
Citation span2009 - 2026 (18)
Highly citedNo

Tools

Open DOISci-HubOpen Access
Ethnos_APP • Open Source Project • MIT License • Frontend v2.0.0 • Privacy and Cookies • API Documentation: api.ethnos.app/docs • API Source Code: GitHub • DOI: 10.5281/zenodo.17049435 • Frontend Source Code: GitHub • DOI: 10.5281/zenodo.17050053 • cruz.rio.br • Expectantes Misericordiae