Access the full text.
Sign up today, get DeepDyve free for 14 days.
Véronique Matterne (2000)
Agriculture et alimentation végétale durant l'âge du fer et l'époque gallo-romaine en France septentrionale
WD Carlson (1983)
The polymorphs of CaCO3 and the aragonite-calcite transformation. In: Reeder RJ (ed) Carbonates: Mineralogy and Chemistry, Mineral. Soc. Am., RevMineral, 11
A. Vekua, D. Lordkipanidze, G. Rightmire, J. Agustí, R. Ferring, G. Maisuradze, A. Mouskhelishvili, Medea Nioradze, Marcia León, M. Tappen, M. Tvalchrelidze, C. Zollikofer (2002)
A New Skull of Early Homo from Dmanisi, GeorgiaScience, 297
C Pichard, F Fröhlich (1986)
Analyses infrarouges quantitatives des sédiments. Exemple du dosage du quartz et de la calciteRevue de l'Institut Français du Pétrole, 41
G. Retallack (2019)
Soils of the Past: An Introduction to Paleopedology
(1978)
Fruchtanatomische Untersuchungen an Lithospermeae (Boraginaceae)
(1989)
Der alfipaläolithische Fundplatz Dmanisi in Georgian ( Kaukasus )
L. McCobb, D. Briggs, W. Carruthers, R. Evershed (2003)
Phosphatisation of seeds and roots in a Late Bronze Age deposit at Potterne, Wiltshire, UKJournal of Archaeological Science, 30
DEG Briggs, PR Wilby (1996)
The role of the calcium carbonate calcium phosphate switch in the mineralization of soft-bodied fossilsJ Geol Soc London, 153
L. Gabunia, A. Vekua, D. Lordkipanidze (2000)
The environmental contexts of early human occupation of Georgia (Transcaucasia).Journal of human evolution, 38 6
D. Briggs, P. Wilby (1996)
The role of the calcium carbonate-calcium phosphate switch in the mineralization of soft-bodied fossilsJournal of the Geological Society, 153
L. McCobb, D. Briggs, R. Evershed, A. Hall, R. Hall (2001)
Preservation of Fossil Seeds From a 10th Century AD Cess Pit at Coppergate, YorkJournal of Archaeological Science, 28
F. Green (1979)
Phosphatic mineralization of seeds from archaeological sitesJournal of Archaeological Science, 6
F. Fröhlich (1989)
Deep-sea biogenic silica: new structural and analytical data from infrared analysis - geological implicationsTerra Nova, 1
W. Vanzeist, Gj Deroller (1995)
PLANT REMAINS FROM ASIKLI-HOYUK, A PRE-POTTERY NEOLITHIC SITE IN CENTRAL ANATOLIAVegetation History and Archaeobotany, 4
W. Carlson (1983)
The polymorphs of CaCO3 and the aragonite-calcite transformation.
D. Lloyd (1975)
The infrared spectra of mineralsAnalytica Chimica Acta, 78
(2008)
Geology and formation processes at Dmanisi in the Georgian Caucasus
Yang Wang, A. Jahren, R. Amundson (1997)
Potential for14C Dating of Biogenic Carbonate in Hackberry (Celtis) EndocarpsQuaternary Research, 47
E. Yanovsky, E. Nelson, R. Kingsbury (1932)
BERRIES RICH IN CALCIUM.Science, 75 1952
J. Perić, M. Vučak, R. Krstulovič, L. Brečević, D. Kralj (1996)
Phase transformation of calcium carbonate polymorphsThermochimica Acta, 277
P. Wilby, D. Briggs (1997)
Taxonomic trends in the resolution of detail preserved in fossil phosphatized soft tissuesGeobios, 30
E. Messager, D. Lordkipanidze, C. Ferring, B. Deniaux (2008)
Fossil fruit identification by SEM investigations, a tool for palaeoenvironmental reconstruction of Dmanisi site, GeorgiaJournal of Archaeological Science, 35
K. Pustovoytov, S. Riehl (2006)
Suitability of biogenic carbonate of Lithospermum fruits for 14C datingQuaternary Research, 65
(1983)
Palaeobotanical studies of Neolithic Erbaba, Turkey
Erwan Messager (2006)
Apports des études paléobotaniques à la reconstitution paléoenvironnementale du site de Dmanissi et de sa région (Géorgie)
L. Gabunia, A. Vekua, D. Lordkipanidze, C. Swisher, R. Ferring, Antje Justus, Medea Nioradze, M. Tvalchrelidze, S. Antón, G. Bosinski, O. Jöris, M. Lumley, G. Majsuradze, Aleksander Mouskhelishvili (2000)
Earliest Pleistocene hominid cranial remains from Dmanisi, Republic of Georgia: taxonomy, geological setting, and age.Science, 288 5468
C. Pichard, F. Frohlich (1986)
Analyses IR quantitatives des sédiments. Exemple du dosage du quartz et de la calciteOil & Gas Science and Technology-revue De L Institut Francais Du Petrole, 41
R. Kunzler, H. Goodell (1970)
The aragonite-calcite transformation; a problem in the kinetics of a solid-solid reactionAmerican Journal of Science, 269
(1986)
Analyses infrarouges quantitatives des sédiments
M. Cowan, M. Gabel, A. Jahren, L. Tieszen (1997)
GROWTH AND BIOMINERALIZATION OF CELTIS OCCIDENTALIS (ULMACEAE) PERICARPSAmerican Midland Naturalist, 137
A. Jahren, M. Gabel, R. Amundson (1998)
Biomineralization in seeds: developmental trends in isotopic signatures of hackberryPalaeogeography, Palaeoclimatology, Palaeoecology, 138
K. Pustovoytov, S. Riehl, S. Mittmann (2004)
Radiocarbon age of carbonate in fruits of Lithospermum from the early Bronze Age settlement of Hirbet ez-Zeraqōn (Jordan)Vegetation History and Archaeobotany, 13
L. Court (2011)
Le rayonnement infrarouge
(2002)
La spectroscopie infrarouge , un outil polyvalent
V. Farmer (1974)
The Infrared spectra of minerals, 4
D. Lordkipanidze, T. Jashashvili, T. Jashashvili, A. Vekua, M. León, C. Zollikofer, G. Rightmire, H. Pontzer, R. Ferring, O. Oms, M. Tappen, M. Bukhsianidze, J. Agustí, Ralf-Dietrich Kahlke, G. Kiladze, B. Martínez-Navarro, A. Mouskhelishvili, Medea Nioradze, L. Rook (2007)
Postcranial evidence from early Homo from Dmanisi, Georgia.Nature, 449 7160
M. Berndt, W. Seyfried (1999)
Rates of aragonite conversion to calcite in dilute aqueous fluids at 50 to 100°C: experimental calibration using Ca-isotope attenuationGeochimica et Cosmochimica Acta, 63
A. Gendron-Badou, T. Coradin, J. Maquet, F. Fröhlich, J. Livage (2003)
Spectroscopic characterization of biogenic silicaJournal of Non-crystalline Solids, 316
Zhaodong Nan, Xiangna Chen, Qianqian Yang, Xiu‐Rong Wang, Zuoyi Shi, W. Hou (2008)
Structure transition from aragonite to vaterite and calcite by the assistance of SDBS.Journal of colloid and interface science, 325 2
A. Jahren, R. Amundson, C. Kendall, P. Wigand (2001)
Paleoclimatic Reconstruction Using the Correlation in δ18O of Hackberry Carbonate and Environmental Water, North AmericaQuaternary Research, 56
(2002)
La microscopie électronique à Balayage environ - nementale
Mineralised fruits and seeds are frequently found in archaeological sediments but their chemical nature has not been often examined. The nature and the origin of these archaeobotanical remains have to be investigated to understand their taphonomic history. Fruits or seeds can be mineralised not only by replacement mineralisation but also by biomineralisation during the plant life. The mineral components of three fossil fruits sampled on the Pleistocene site of Dmanisi were analysed and compared with their modern analogues. Analyses were carried out by means of an environmental scanning electron microscope, equipped with an energy dispersive X-ray device and by means of a Fourier transform infrared spectrometer. Biogenic carbonates and/or biogenic silica were identified in the fossil and modern fruits of some taxa. Comparison between fossil and modern specimens has shown that molecular reorganisation occurred in carbonate and in biogenic silica during fossilisation, through diagenetic processes. The resulting stable mineral structures confer an exceptional preservation to fruits in sediments. Taking into account these taphonomic specificities (transformation and differential preservation), the chronological and palaeoenvironmental aspects of the mineralised fruits are discussed.
Archaeological and Anthropological Sciences – Springer Journals
Published: Mar 13, 2010
Read and print from thousands of top scholarly journals.
Already have an account? Log in
Bookmark this article. You can see your Bookmarks on your DeepDyve Library.
To save an article, log in first, or sign up for a DeepDyve account if you don’t already have one.
Copy and paste the desired citation format or use the link below to download a file formatted for EndNote
Access the full text.
Sign up today, get DeepDyve free for 14 days.
All DeepDyve websites use cookies to improve your online experience. They were placed on your computer when you launched this website. You can change your cookie settings through your browser.