ATR-FTIR to distinguish Holocene fumier facies. A perspective from bone diagenesis at El Mirador cave (Sierra de Atapuerca, Spain)
暂无分享,去创建一个
[1] J. Vergès,et al. Early sheep herd management in the inland of the Iberian Peninsula: results of the incremental isotopic analyses of dental remains from El Mirador cave (Sierra de Atapuerca, Spain) , 2021, Archaeological and Anthropological Sciences.
[2] M. Buckley,et al. Machine learning ATR-FTIR spectroscopy data for the screening of collagen for ZooMS analysis and mtDNA in archaeological bone , 2021 .
[3] N. Sugiyama,et al. Establishing a preservation index for bone, dentin, and enamel bioapatite mineral using ATR-FTIR , 2020 .
[4] A. Benito‐Calvo,et al. Pen management and livestock activities based on phytoliths, dung spherulites, and minerals from Cova Gran de Santa Linya (Southeastern pre-Pyrenees) , 2020, Archaeological and Anthropological Sciences.
[5] A. Margaryan,et al. Screening archaeological bone for palaeogenetic and palaeoproteomic studies , 2020, PloS one.
[6] Y. S. Erdal,et al. Application of ATR-FTIR spectroscopy and chemometrics for the discrimination of human bone remains from different archaeological sites in Turkey. , 2020, Spectrochimica acta. Part A, Molecular and biomolecular spectroscopy.
[7] A. Rodríguez-Hidalgo,et al. Making skull cups: Butchering traces on cannibalised human skulls from five European archaeological sites , 2020 .
[8] Juan Luis Arsuaga,et al. Identifying the bone-breaker at the Navalmaíllo Rock Shelter (Pinilla del Valle, Madrid) using machine learning algorithms , 2020 .
[9] I. Jerman,et al. ATR-FTIR spectroscopy combined with data manipulation as a pre-screening method to assess DNA preservation in skeletal remains. , 2019, Forensic science international. Genetics.
[10] S. Talamo,et al. Saving Old Bones: a non-destructive method for bone collagen prescreening , 2019, Scientific Reports.
[11] D. González-Aguilera,et al. Combining machine learning algorithms and geometric morphometrics: A study of carnivore tooth marks , 2019, Palaeogeography, Palaeoclimatology, Palaeoecology.
[12] José Yravedra,et al. Classifying agency in bone breakage: an experimental analysis of fracture planes to differentiate between hominin and carnivore dynamic and static loading using machine learning (ML) algorithms , 2019, Archaeological and Anthropological Sciences.
[13] R. Spengler. Dung burning in the archaeobotanical record of West Asia: where are we now? , 2019, Vegetation History and Archaeobotany.
[14] M. Collins,et al. Preparation of bone powder for FTIR-ATR analysis: The particle size effect , 2018, Vibrational Spectroscopy.
[15] E. Cunha,et al. Heat-induced Bone Diagenesis Probed by Vibrational Spectroscopy , 2018, Scientific Reports.
[16] Manuel Domínguez-Rodrigo,et al. Successful classification of experimental bone surface modifications (BSM) through machine learning algorithms: a solution to the controversial use of BSM in paleoanthropology? , 2018, Archaeological and Anthropological Sciences.
[17] G. Artioli,et al. A universal curve of apatite crystallinity for the assessment of bone integrity and preservation , 2018, Scientific Reports.
[18] Lior Rokach,et al. Ensemble learning: A survey , 2018, WIREs Data Mining Knowl. Discov..
[19] Manuel Domínguez-Rodrigo,et al. Distinguishing butchery cut marks from crocodile bite marks through machine learning methods , 2018, Scientific Reports.
[20] C. Egeland,et al. Hominin skeletal part abundances and claims of deliberate disposal of corpses in the Middle Pleistocene , 2018, Proceedings of the National Academy of Sciences.
[21] M. Collins,et al. Diagenesis of archaeological bone and tooth , 2018 .
[22] B. Pavan,et al. Carbonate substitution in the mineral component of bone: Discriminating the structural changes, simultaneously imposed by carbonate in A and B sites of apatite. , 2017, Journal of solid state chemistry.
[23] G. Artioli,et al. Bone diagenesis variability among multiple burial phases at Al Khiday (Sudan) investigated by ATR-FTIR spectroscopy , 2016 .
[24] A. Benito‐Calvo,et al. Formation processes and stratigraphic integrity of the Middle-to-Upper Palaeolithic sequence at Cova Gran de Santa Linya (Southeastern Prepyrenees of Lleida, Iberian Peninsula) , 2016 .
[25] I. Expósito,et al. Taphonomic approach to the palynological record of burnt and unburnt samples from El Mirador Cave (Sierra de Atapuerca, Burgos, Spain) , 2016 .
[26] J. Vergès,et al. Bone alterations in fumiers: Experimental approach , 2016 .
[27] E. Allué,et al. Agriculture and livestock economy among prehistoric herders based on plant macro-remains from El Mirador (Atapuerca, Burgos) , 2016 .
[28] E. Allué,et al. Wood uses at El Mirador Cave (Atapuerca, Burgos) based on anthracology and dendrology , 2016 .
[29] S. Javerzat,et al. What can infrared spectroscopy do for characterizing organic remnant in fossils , 2016 .
[30] M. Lozano,et al. El Mirador cave (Sierra de Atapuerca, Burgos, Spain): a whole perspective , 2016 .
[31] David E. Friesem. Geo-ethnoarchaeology in action , 2016 .
[32] M. Arriaza,et al. When felids and hominins ruled at Olduvai Gorge: A machine learning analysis of the skeletal profiles of the non-anthropogenic Bed I sites , 2016 .
[33] X. Gallet,et al. Rapid Quantification of Bone Collagen Content by ATR-FTIR Spectroscopy , 2016, Radiocarbon.
[34] Meez Islam,et al. The Effect of Soft Tissue on Temperature Estimation from Burnt Bone Using Fourier Transform Infrared Spectroscopy , 2016, Journal of forensic sciences.
[35] C. Snoeck,et al. From bone to ash: Compositional and structural changes in burned modern and archaeological bone , 2014 .
[36] G. Artioli,et al. Bone diagenesis at the micro-scale: Bone alteration patterns during multiple burial phases at Al Khiday (Khartoum, Sudan) between the Early Holocene and the II century AD , 2014 .
[37] E. Boaretto,et al. The taphonomy and preservation of wood and dung ashes found in archaeological cooking installations: case studies from Iron Age Israel , 2014 .
[38] E. Bartelink,et al. Comparison of transmission FTIR, ATR, and DRIFT spectra: implications for assessment of bone bioapatite diagenesis , 2014 .
[39] B. Ludes,et al. Novel contribution on the diagenetic physicochemical features of bone and teeth minerals, as substrates for ancient DNA typing , 2014, Analytical and Bioanalytical Chemistry.
[40] J. Pasteris,et al. Molecular water in nominally unhydrated carbonated hydroxylapatite: The key to a better understanding of bone mineral , 2014 .
[41] H. Hollund,et al. TESTING AN ALTERNATIVE HIGH-THROUGHPUT TOOL FOR INVESTIGATING BONE DIAGENESIS: FTIR IN ATTENUATED TOTAL REFLECTION (ATR) MODE , 2013 .
[42] Maria Yubero Gómez,et al. Hàbitat en cova i espai pels ramats ca.6200-6000 BP:La Cova Colomera (Prepirineu de Lleida) durant el Neolític Antic. , 2013 .
[43] Meez Islam,et al. A new statistical approach for determining the crystallinity of heat-altered bone mineral from FTIR spectra , 2013 .
[44] P. Bosch,et al. Boiled versus unboiled: a study on Neolithic and contemporary human bones , 2011 .
[45] R. Shahack-Gross,et al. Herbivorous livestock dung: formation, taphonomy, methods for identification, and archaeological significance , 2011 .
[46] A. Boskey,et al. Infrared Assessment of Bone Quality: A Review , 2011, Clinical orthopaedics and related research.
[47] M. Domínguez‐Rodrigo,et al. How Can Taphonomy Be Defined in the XXI Century , 2011 .
[48] H. Schwarcz,et al. New parameters for the characterization of diagenetic alterations and heat-induced changes of fossil bone mineral using Fourier transform infrared spectrometry , 2010 .
[49] M. Collins,et al. Sorting the butchered from the boiled , 2010 .
[50] Lior Rokach,et al. Ensemble-based classifiers , 2010, Artificial Intelligence Review.
[51] A. Pedrotti,et al. Shepherds and karst: the use of caves and rock-shelters in the Mediterranean region during the Neolithic , 2009 .
[52] Meez Islam,et al. The application of a new method of Fourier Transform Infrared Spectroscopy to the analysis of burned bone , 2009 .
[53] J. Vergès,et al. Formation processes through archaeobotanical remains: The case of the Bronze Age levels in El Mirador cave, Sierra de Atapuerca, Spain , 2009 .
[54] I. Reiche,et al. Curve-fitting micro-ATR-FTIR studies of the amide I and II bands of type I collagen in archaeological bone materials , 2009 .
[55] I. Reiche,et al. Characterization of archaeological burnt bones: contribution of a new analytical protocol based on derivative FTIR spectroscopy and curve fitting of the ν1ν3 PO4 domain , 2008, Analytical and bioanalytical chemistry.
[56] J. Pasteris,et al. Bone and Tooth Mineralization: Why Apatite? , 2008 .
[57] C. Trueman,et al. Comparing rates of recrystallisation and the potential for preservation of biomolecules from the distribution of trace elements in fossil bones , 2008 .
[58] Sébastien Lê,et al. FactoMineR: An R Package for Multivariate Analysis , 2008 .
[59] J. Mansilla,et al. THERMAL ALTERATIONS IN ARCHAEOLOGICAL BONES , 2007 .
[60] M. Lozano,et al. Evidence for bronze age cannibalism in El Mirador Cave (Sierra de Atapuerca, Burgos, Spain). , 2007, American journal of physical anthropology.
[61] F. Longstaffe,et al. Burning and boiling of modern deer bone: Effects on crystallinity and oxygen isotope composition of bioapatite phosphate , 2007 .
[62] Sixto Rafael Fernández López. Taphonomic alteration and evolutionary taphonomy , 2006 .
[63] S. Weiner,et al. Geoarchaeology in an urban context: the uses of space in a Phoenician monumental building at Tel Dor (Israel) , 2005 .
[64] S. Weiner,et al. Mineralogical and compositional changes in bones exposed on soil surfaces in Amboseli National Park, Kenya: diagenetic mechanisms and the role of sediment pore fluids , 2004 .
[65] M. Collins,et al. A practical approach to the identification of low temperature heated bone using TEM , 2003 .
[66] S. Weiner,et al. Geo-Ethnoarchaeology of Pastoral Sites: The Identification of Livestock Enclosures in Abandoned Maasai Settlements , 2003 .
[67] Robert E. M. Hedges,et al. Bone diagenesis: an overview of processes , 2002 .
[68] Andrew R. Millard,et al. The survival of organic matter in bone: a review , 2002 .
[69] Andrew R. Millard,et al. The taphonomy of cooked bone: characterizing boiling and its physico–chemical effects , 2002 .
[70] Christina M. Nielsen-Marsh,et al. Patterns of Diagenesis in Bone I: The Effects of Site Environments , 2000 .
[71] D. Opitz,et al. Popular Ensemble Methods: An Empirical Study , 1999, J. Artif. Intell. Res..
[72] J. Lee-Thorp,et al. Alteration of Enamel Carbonate Environments during Fossilization , 1999 .
[73] Steve Weiner,et al. THE MATERIAL BONE: Structure-Mechanical Function Relations , 1998 .
[74] R. Nicholson. Bone Degradation in a Compost Heap , 1998 .
[75] H. Schwarcz,et al. Infrared and Isotopic Evidence for Diagenesis of Bone Apatite at Dos Pilas, Guatemala: Palaeodietary Implications , 1996 .
[76] R. Nicholson. Bone degradation, burial medium and species representation : Debunking the myths, an experiment-based approach , 1996 .
[77] N. Miller. Seed Eaters of the Ancient Near East: Human or Herbivore? , 1996, Current Anthropology.
[78] Steven L. Kuhn,et al. Differential Burning, Recrystallization, and Fragmentation of Archaeological Bone , 1995 .
[79] P. Villa,et al. Shepherds and sediments: Geo-ethnoarchaeology of pastoral sites , 1992 .
[80] H. Bocherens,et al. Isotopic biogeochemistry (13C,15N) of fossil vertebrate collagen: application to the study of a past food web including Neandertal man , 1991 .
[81] J. Lee-Thorp,et al. Aspects of the Chemistry of Modern and Fossil Biological Apatites , 1991 .
[82] J. Argant,et al. Pollens, charbons de bois et sédiments : l'action humaine et la végétation, le cas de la grotte d'Antonnaire (Montmaur-en-Diois, Drôme) , 1991 .
[83] Sixto Rafael Fernández López. Taphonomic concepts for a theoretical biochronology , 1991 .
[84] A. Shemesh. Crystallinity and diagenesis of sedimentary apatites , 1990 .
[85] S. Weiner,et al. States of preservation of bones from prehistoric sites in the Near East: A survey , 1990 .
[86] R. Longin. New Method of Collagen Extraction for Radiocarbon Dating , 1971, Nature.