3D models of European Late Paleocene mammals
3D models of a late Holocene human of Patagonia
3D models of: The endocranial anatomy of Protocetus
3D GM dataset of bird skeletal variation
Skeletal embryonic development in the catshark
Bony connexions of the petrosal bone of extant hippos
bony labyrinth (11) , inner ear (10) , Eocene (8) , South America (8) , Paleobiogeography (7) , skull (7) , phylogeny (6)
Lionel Hautier (22) , Maëva Judith Orliac (21) , Laurent Marivaux (16) , Rodolphe Tabuce (14) , Bastien Mennecart (13) , Pierre-Olivier Antoine (12) , Renaud Lebrun (10)
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3D model related to the publication: A new cynodont from the Upper Triassic Los Colorados Formation (Argentina, South America) reveals a novel paleobiogeographic context for mammalian ancestorsLeandro C. Gaetano
Published online: 25/04/2022 |
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M3#9603D surface model of PULR-V121 Type: "3D_surfaces"doi: 10.18563/m3.sf.960 state:published |
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The present 3D Dataset contains the 3D model analyzed in the following publication: Paulina-Carabajal, A., Sterli, J., Werneburg, I., 2019. The endocranial anatomy of the stem turtle Naomichelys speciosa from the Early Cretaceous of North America. Acta Palaeontologica Polonica, https://doi.org/10.4202/app.00606.2019
Naomichelys speciosa FMNH PR273 View specimen
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M3#428FMNH_PR273_1 - Naomichlys speciosa - skull Type: "3D_surfaces"doi: 10.18563/m3.sf.428 state:published |
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The present 3D Dataset contains the 3D model analyzed in the publication : On Roth’s “human fossil” from Baradero, Buenos Aires Province, Argentina: morphological and genetic analysis. The “human fossil” from Baradero, Buenos Aires Province, Argentina, is a collection of skeleton parts first recovered by Swiss paleontologist Santiago Roth and further studied by anthropologist Rudolf Martin. By the end of the 19th century and beginning of the 20th century it was considered as one of the oldest human skeletons from the southern cone. We studied the cranial anatomy and contextualized the ancient individual remains. We discuss the context of the finding, conducted an osteobiographical assessment and performed a 3D virtual reconstruction of the skull, using micro-CT-scans on selected skull fragments and the mandible. This was followed by the extraction of bone tissue and teeth samples for radiocarbon and genetic analyses, which brought only limited results due to poor preservation and possible contamination. We estimate that the individual from Baradero is a middle-aged adult male. We conclude that the revision of foundational collections with current methodological tools brings new insights and clarifies long held assumptions on the significance of samples that were recovered when archaeology was not yet professionalized.
Homo sapiens PIMUZ A/V 4217 View specimen
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M3#11983D virtual reconstruction of the skull Type: "3D_surfaces"doi: 10.18563/m3.sf.1198 state:published |
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The present 3D Dataset contains the 3D models analyzed in Merten, L.J.F, Manafzadeh, A.R., Herbst, E.C., Amson, E., Tambusso, P.S., Arnold, P., Nyakatura, J.A., 2023. The functional significance of aberrant cervical counts in sloths: insights from automated exhaustive analysis of cervical range of motion. Proceedings of the Royal Society B. doi: 10.1098/rspb.2023.1592
Ailurus fulgens PMJ_Mam_6639 View specimen
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M3#1260cervical vertebral series (7 vertebrae) Type: "3D_surfaces"doi: 10.18563/m3.sf.1260 state:published |
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Bradypus variegatus ZMB_Mam_91345 View specimen
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M3#1261cervical vertebral series (8 vertebrae) + first thoracic vertebra Type: "3D_surfaces"doi: 10.18563/m3.sf.1261 state:published |
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Bradypus variegatus ZMB_Mam_35824 View specimen
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M3#1262cervical vertebral series (8 vertebrae) + first & second thoracic vertebra Type: "3D_surfaces"doi: 10.18563/m3.sf.1262 state:published |
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Choloepus didactylus ZMB_Mam_38388 View specimen
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M3#1263cervical vertebral series (7 vertebrae) Type: "3D_surfaces"doi: 10.18563/m3.sf.1263 state:published |
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Choloepus didactylus ZMB_Mam_102634 View specimen
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M3#1264cervical vertebral series (6 vertebrae) + first thoracic vertebra Type: "3D_surfaces"doi: 10.18563/m3.sf.1264 state:published |
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Tamandua tetradactyla ZMB_Mam_91288 View specimen
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M3#1266cervical vertebral series (7 vertebrae) + first thoracic vertebra Type: "3D_surfaces"doi: 10.18563/m3.sf.1266 state:published |
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Glossotherium robustum MNHN_n/n View specimen
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M3#1267cervical vertebral series (7 vertebrae) + first thoracic vertebra Type: "3D_surfaces"doi: 10.18563/m3.sf.1267 state:published |
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This contribution contains the 3D models of the bony labyrinths of two protocetid archaeocetes from the locality of Kpogamé, Togo, described and figured in the publication of Mourlam and Orliac (2017). https://doi.org/10.1016/j.cub.2017.04.061
?Carolinacetus indet. UM KPG-M 164 View specimen
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M3#149bony labyrinth of ? Carolinacetus sp. from Kpogamé, Togo Type: "3D_surfaces"doi: 10.18563/m3.sf.149 state:published |
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indet. indet. UM KPG-M 73 View specimen
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M3#150bony labyrinth of Protocetidae indet. from Kpogamé, Togo Type: "3D_surfaces"doi: 10.18563/m3.sf.150 state:published |
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This contribution contains the 3D models described and figured in the following publication: Bonis, L. de, Grohé, C., Surault, J., Gardin, A. 2022. Description of the first cranium and endocranial structures of Stenoplesictis minor (Mammalia, Carnivora), an early aeluroid from the Oligocene of the Quercy Phosphorites (southwestern France). Historical Biology. https://doi.org/10.1080/08912963.2022.2045980
Stenoplesictis minor UM-ACQ 6705 View specimen
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M3#961Endocranium Type: "3D_surfaces"doi: 10.18563/m3.sf.961 state:published |
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M3#962Right bony labyrinth Type: "3D_surfaces"doi: 10.18563/m3.sf.962 state:published |
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M3#963Left bony labyrinth Type: "3D_surfaces"doi: 10.18563/m3.sf.963 state:published |
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M3#964Cranium in transparency with endocranial structures Type: "3D_surfaces"doi: 10.18563/m3.sf.964 state:published |
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The present 3D Dataset contains the 3D models analyzed in 3D Finite Element Analysis and Geometric Morphometrics of Sloths (Xenarthra, Folivora) Mandibles Show Insights on the Dietary Specializations of Fossil Taxa. Journal of South American Earth Sciences. https://doi.org/10.1016/j.jsames.2023.104445
Mylodon darwinii CAV 379 View specimen
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M3#1159Right hemimandible Type: "3D_surfaces"doi: 10.18563/m3.sf.1159 state:published |
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Scelidotherium leptocephalum MNHN-M 137,722 View specimen
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M3#1160Mandible Type: "3D_surfaces"doi: 10.18563/m3.sf.1160 state:published |
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Glossotherium robustum MNHN-M 914 View specimen
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M3#1161Mandible Type: "3D_surfaces"doi: 10.18563/m3.sf.1161 state:published |
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Lestodon armatus MPAC 899 View specimen
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M3#1162Mandible Type: "3D_surfaces"doi: 10.18563/m3.sf.1162 state:published |
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Valgipes bucklandi NHMD.Z.M.K. 1/1845:3540 View specimen
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M3#1163Mandible Type: "3D_surfaces"doi: 10.18563/m3.sf.1163 state:published |
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This contribution contains the 3D model of an endocranial cast analyzed in “A 10 ka intentionally deformed human skull from Northeast Asia”. There are many studies on the morphological characteristics of intentional cranial deformation (ICD), but few related 3D models were published. Here, we present the surface model of an intentionally deformed 10 ka human cranium for further research on ICD practice. The 3D model of the endocranial cast of this ICD cranium was discovered near Harbin City, Province Heilongjiang, Northeast China. The fossil preserved only the frontal, parietal, and occipital bones. To complete the endocast model of the specimen, we printed a 3D model and used modeling clay to reconstruct the missing part based on the general form of the modern human endocast morphology.
Homo sapiens IVPP-PA1616 View specimen
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M3#972The frontal region of the endocast is flattened, probably formed by the constant pressure on the frontal bone during growth. There is a well-developed frontal crest on the endocranial surface. The endocast widens posteriorly from the frontal lobe. The widest point of the endocast is at the lateral border of the parietal lobe. The lower parietal areas display a marked lateral expansion. The overall shape of the endocast is asymmetrical, with the left side of the parietal lobe being more laterally expanded than the right side. Like the frontal lobe, the occipital lobe is also anteroposteriorly flattened. Type: "3D_surfaces"doi: 10.18563/m3.sf.972 state:published |
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M3#976The original endocranial cast model (with texture) of IVPP-PA1616. It shows the original structures of the specimen, and was not altered in any way. Type: "3D_surfaces"doi: 10.18563/m3.sf.976 state:published |
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The present 3D Dataset contains the 3D models illustrated and described in the chapter “Paleoneurology of Artiodactyla, an overview of the evolution of the artiodactyl brain” (Orliac et al. 2022) published in "Paleoneurology of amniotes: new directions in the study of fossil endocasts", edited by Dozo, Paulina-Carabajal, Macrini and Walsh.
Homacodon vagans AMNH 12695 View specimen
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M3#1063Endocranial cast Type: "3D_surfaces"doi: 10.18563/m3.sf.1063 state:published |
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Helohyus sp. AMNH 13079 View specimen
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M3#1064Endocranial cast Type: "3D_surfaces"doi: 10.18563/m3.sf.1064 state:published |
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Leptauchenia sp. AMNH 45508 View specimen
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M3#1065endocranial cast Type: "3D_surfaces"doi: 10.18563/m3.sf.1065 state:published |
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Agriochoerus sp. AMNH 95330 View specimen
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M3#1067endocranial cast Type: "3D_surfaces"doi: 10.18563/m3.sf.1067 state:published |
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Mouillacitherium elegans UM ACQ 6625 View specimen
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M3#1068endocranial cast Type: "3D_surfaces"doi: 10.18563/m3.sf.1068 state:published |
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Caenomeryx filholi UM PDS 2570 View specimen
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M3#1069endocranial cast Type: "3D_surfaces"doi: 10.18563/m3.sf.1069 state:published |
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Dichobune leporina MNHN.F.QU16586 View specimen
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M3#1070endocranial cast Type: "3D_surfaces"doi: 10.18563/m3.sf.1070 state:published |
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Anoplotherium sp. not numbered View specimen
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M3#1071endocranial cast Type: "3D_surfaces"doi: 10.18563/m3.sf.1071 state:published |
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This contribution contains 3D models of upper molar rows of house mice (Mus musculus domesticus) belonging to Western European commensal and Sub-Antarctic feral populations. These two groups are characterized by different patterns of wear and alignment of the three molars along the row, related to contrasted masticatory demand in relation with their diet. These models are analyzed in the following publication: Renaud et al 2023, “Molar wear in house mice, insight into diet preferences at an ecological time scale?”, https://doi.org/10.1093/biolinnean/blad091
Mus musculus G09_06 View specimen
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M3#1166right upper molar row Type: "3D_surfaces"doi: 10.18563/m3.sf.1166 state:published |
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Mus musculus G09_10 View specimen
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M3#1168right upper molar row Type: "3D_surfaces"doi: 10.18563/m3.sf.1168 state:published |
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Mus musculus G09_15 View specimen
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M3#1169right upper molar row Type: "3D_surfaces"doi: 10.18563/m3.sf.1169 state:published |
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Mus musculus G09_16 View specimen
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M3#1170right upper molar row Type: "3D_surfaces"doi: 10.18563/m3.sf.1170 state:published |
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Mus musculus G09_17 View specimen
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M3#1171right upper molar row Type: "3D_surfaces"doi: 10.18563/m3.sf.1171 state:published |
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Mus musculus G09_21 View specimen
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M3#1172right upper molar row Type: "3D_surfaces"doi: 10.18563/m3.sf.1172 state:published |
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Mus musculus G09_26 View specimen
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M3#1173right upper molar row Type: "3D_surfaces"doi: 10.18563/m3.sf.1173 state:published |
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Mus musculus G09_27 View specimen
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M3#1174right upper molar row Type: "3D_surfaces"doi: 10.18563/m3.sf.1174 state:published |
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Mus musculus G09_29 View specimen
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M3#1175right upper molar row Type: "3D_surfaces"doi: 10.18563/m3.sf.1175 state:published |
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Mus musculus G09_65 View specimen
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M3#1176right upper molar row Type: "3D_surfaces"doi: 10.18563/m3.sf.1176 state:published |
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Mus musculus G09_66 View specimen
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M3#1177right upper molar row Type: "3D_surfaces"doi: 10.18563/m3.sf.1177 state:published |
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Mus musculus G93_03 View specimen
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M3#1178right upper molar row Type: "3D_surfaces"doi: 10.18563/m3.sf.1178 state:published |
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Mus musculus G93_04 View specimen
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M3#1179right upper molar row Type: "3D_surfaces"doi: 10.18563/m3.sf.1179 state:published |
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Mus musculus G93_10 View specimen
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M3#1180right upper molar row Type: "3D_surfaces"doi: 10.18563/m3.sf.1180 state:published |
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Mus musculus G93_11 View specimen
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M3#1181right upper molar row Type: "3D_surfaces"doi: 10.18563/m3.sf.1181 state:published |
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Mus musculus G93_13 View specimen
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M3#1182right upper molar row Type: "3D_surfaces"doi: 10.18563/m3.sf.1182 state:published |
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Mus musculus G93_14 View specimen
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M3#1183right upper molar row Type: "3D_surfaces"doi: 10.18563/m3.sf.1183 state:published |
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Mus musculus G93_15 View specimen
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M3#1184right upper molar row Type: "3D_surfaces"doi: 10.18563/m3.sf.1184 state:published |
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Mus musculus G93_24 View specimen
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M3#1185left molar row Type: "3D_surfaces"doi: 10.18563/m3.sf.1185 state:published |
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Mus musculus Tourch_7819 View specimen
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M3#1186right upper molar row Type: "3D_surfaces"doi: 10.18563/m3.sf.1186 state:published |
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Mus musculus G93_25 View specimen
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M3#1187right upper molar row Type: "3D_surfaces"doi: 10.18563/m3.sf.1187 state:published |
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Mus musculus Tourch_7821 View specimen
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M3#1188right upper molar row Type: "3D_surfaces"doi: 10.18563/m3.sf.1188 state:published |
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Mus musculus Tourch_7839 View specimen
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M3#1189right upper molar row Type: "3D_surfaces"doi: 10.18563/m3.sf.1189 state:published |
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Mus musculus Tourch_7873 View specimen
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M3#1190right upper molar row Type: "3D_surfaces"doi: 10.18563/m3.sf.1190 state:published |
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Mus musculus Tourch_7877 View specimen
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M3#1196right upper molar row Type: "3D_surfaces"doi: 10.18563/m3.sf.1196 state:published |
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Mus musculus Tourch_7922 View specimen
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M3#1191right upper molar row Type: "3D_surfaces"doi: 10.18563/m3.sf.1191 state:published |
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Mus musculus Tourch_7923 View specimen
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M3#1192right upper molar row Type: "3D_surfaces"doi: 10.18563/m3.sf.1192 state:published |
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Mus musculus Tourch_7925 View specimen
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M3#1193right upper molar row Type: "3D_surfaces"doi: 10.18563/m3.sf.1193 state:published |
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Mus musculus Tourch_7927 View specimen
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M3#1194right upper molar row Type: "3D_surfaces"doi: 10.18563/m3.sf.1194 state:published |
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Mus musculus Tourch_7932 View specimen
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M3#1195right upper molar row Type: "3D_surfaces"doi: 10.18563/m3.sf.1195 state:published |
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Using X-ray microtomography, we describe the ossification events during the larval development of a non-teleost actinopterygian species: the Cuban gar Atractosteus tristoechus from the order Lepisosteiformes. We provide a detailed developmental series for each anatomical structure, covering a large sequence of mineralization events going from an early stage (13 days post-hatching, 21mm total length) to an almost fully ossified larval stage (118dph or 87mm in standard length). With this work, we expect to bring new developmental data to be used in further comparative studies with other lineages of bony vertebrates. We also hope that the on-line publication of these twelve successive 3D reconstructions, fully labelled and flagged, will be an educational tool for all students in comparative anatomy.
Atractosteus tristoechus At1-13dph View specimen
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M3#94At1-13dph : 13 dph larvae, 21 mm TL Type: "3D_surfaces"doi: 10.18563/m3.sf.94 state:published |
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Atractosteus tristoechus At2-16dph View specimen
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M3#95Atractosteus tristoechus larva, 16 dph, 26mm SL. Type: "3D_surfaces"doi: 10.18563/m3.sf.95 state:published |
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Atractosteus tristoechus At3-19dph View specimen
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M3#96Atractosteus tristoechus larva, 19 dph, 27mm SL. Type: "3D_surfaces"doi: 10.18563/m3.sf.96 state:published |
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Atractosteus tristoechus At4-22dph View specimen
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M3#97Atractosteus tristoechus larva, 22dph, 30mm SL. Type: "3D_surfaces"doi: 10.18563/m3.sf.97 state:published |
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Atractosteus tristoechus At5-26dph View specimen
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M3#98Atractosteus tristoechus larva, 26 dph, 32mm SL. Type: "3D_surfaces"doi: 10.18563/m3.sf.98 state:published |
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Atractosteus tristoechus At6-31dph View specimen
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M3#99Atractosteus tristoechus larva, 31 dph, 39mm SL. Type: "3D_surfaces"doi: 10.18563/m3.sf.99 state:published |
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Atractosteus tristoechus At7-37dph View specimen
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M3#100Atractosteus tristoechus larva, 37 dph, 43mm SL. Type: "3D_surfaces"doi: 10.18563/m3.sf.100 state:published |
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Atractosteus tristoechus At8-52dph View specimen
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M3#101Atractosteus tristoechus larva, 52 dph, 46mm SL. Type: "3D_surfaces"doi: 10.18563/m3.sf.101 state:published |
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Atractosteus tristoechus At9-74dph View specimen
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M3#102Atractosteus tristoechus larva, 74 dph, 61mm SL. Not all structures are colored, only newly ossified ones. Type: "3D_surfaces"doi: 10.18563/m3.sf.102 state:published |
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Atractosteus tristoechus At10-89dph View specimen
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M3#103Atractosteus tristoechus larva, 89 dph, 63mm SL. Not all structures are colored, only newly ossified ones. You may find the tag file in the At1-13dph reconstruction data. Type: "3D_surfaces"doi: 10.18563/m3.sf.103 state:published |
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Atractosteus tristoechus At11-104dph View specimen
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M3#104Atractosteus tristoechus larva, 104 dph, 70mm SL. Not all structures are colored, only newly ossified ones. Type: "3D_surfaces"doi: 10.18563/m3.sf.104 state:published |
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Atractosteus tristoechus At12-118dph View specimen
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M3#105Atractosteus tristoechus larva, 118 dph, 87mm SL. Type: "3D_surfaces"doi: 10.18563/m3.sf.105 state:published |
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Here, the semicircular canals of the most aquatic seal, the rare Antarctic Ross Seal (Ommatophoca rossii), are presented for the first time, along with representatives of every species in the Lobodontini: the leopard seal (Hydrurga leptonyx), Weddell seal (Leptonychotes weddellii), and crabeater seal (Lobodon carcinophagus). Because encounters with wild Ross seal are rare, and few specimens are available in collections worldwide, this dataset increases accessibility to a rare species. For further comparison, we present the bony labyrinths of other carnivorans, the elephant seal (Mirounga leonina), harbor seal (Phoca vitulina), walrus (Odobenus rosmarus), South American sea lion (Otaria byronia).
Odobenus rosmarus MVZ 125566 View specimen
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M3#173Surface of the semicircular canals and cochlea of the walrus, Odobenus rosmarus Type: "3D_surfaces"doi: 10.18563/m3.sf.173 state:published |
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Phoca vitulina UZNH 17973 View specimen
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M3#174Endocast surface of the semicircular canals and cochlea of the harbor seal, Phoca vitulina. Type: "3D_surfaces"doi: 10.18563/m3.sf.174 state:published |
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Hydrurga leptonyx MLP 14.IV.48.11 View specimen
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M3#285Endocast surface of the semicircular canals and cochlea of the leopard seal, Hydrurga leptonyx. Type: "3D_surfaces"doi: 10.18563/m3.sf.285 state:published |
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Leptonychotes weddellii IAA 02-13 View specimen
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M3#288Endocast surface of the semicircular canals and cochlea of the Weddell seal Leptonychotes weddellii. Type: "3D_surfaces"doi: 10.18563/m3.sf.288 state:published |
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Lobodon carcinophagus IAA 530 View specimen
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M3#286Endocast surface of the semicircular canals and cochlea of the crabeater seal, Lobodon carcinophagus. Type: "3D_surfaces"doi: 10.18563/m3.sf.286 state:published |
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Ommatophoca rossii MACN 48259 View specimen
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M3#176Endocast surface of the semicircular canals and cochlea of the Ross seal Ommatophoca rossii. Type: "3D_surfaces"doi: 10.18563/m3.sf.176 state:published |
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Mirounga leonina IAA 03-5 View specimen
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M3#287Right endocast surface of the semicircular canals and cochlea of the elephant seal, Mirounga leonina. Type: "3D_surfaces"doi: 10.18563/m3.sf.287 state:published |
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This contribution contains the 3D models described and figured in the following publications:
- Marini E., Lussu P., 2020. A virtual physical anthropology lab. Teaching in the time of coronavirus, in prep.;
- Lussu P., Bratzu D., Marini E., 2020. Cloud-based ultra close-range digital photogrammetry: validation of an approach for the effective virtual reconstruction of skeletal remains, in prep.
Homo sapiens MSAE 59 View specimen
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M3#509MSAE 59 Type: "3D_surfaces"doi: 10.18563/m3.sf.509 state:published |
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Homo sapiens MSAE 62 View specimen
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M3#510MSAE 62 Type: "3D_surfaces"doi: 10.18563/m3.sf.510 state:published |
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Homo sapiens MSAE 63 View specimen
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M3#512MSAE 63 Type: "3D_surfaces"doi: 10.18563/m3.sf.512 state:published |
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Homo sapiens MSAE 78 View specimen
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M3#514MSAE 78 Type: "3D_surfaces"doi: 10.18563/m3.sf.514 state:published |
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Homo sapiens MSAE 95 View specimen
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M3#515MSAE 95 Type: "3D_surfaces"doi: 10.18563/m3.sf.515 state:published |
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Homo sapiens MSAE 1852 View specimen
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M3#516MSAE 1852 Type: "3D_surfaces"doi: 10.18563/m3.sf.516 state:published |
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Homo sapiens MSAE 6426 View specimen
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M3#517MSAE 6426 Type: "3D_surfaces"doi: 10.18563/m3.sf.517 state:published |
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Homo sapiens MSAE 6428 View specimen
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M3#518MSAE 6428 Type: "3D_surfaces"doi: 10.18563/m3.sf.518 state:published |
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Homo sapiens MSAE 6992 View specimen
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M3#519MSAE 6992 Type: "3D_surfaces"doi: 10.18563/m3.sf.519 state:published |
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Homo sapiens MSAE 7688 View specimen
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M3#520MSAE 7688 Type: "3D_surfaces"doi: 10.18563/m3.sf.520 state:published |
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The present 3D Dataset contains the 3D models analyzed in: Toyoda S et al., 2015, Morphogenesis of the inner ear at different stages of normal human development. The Anatomical Record. doi : 10.1002/ar.23268
Homo sapiens KC-CS17IER29248 View specimen
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M3#36Computationally reconstructed membranous labyrinth of a human embryo (KC-CS17IER29248) at Carnegie Stage 17 (Crown Rump Length= 7mm). Type: "3D_surfaces"doi: 10.18563/m3.sf36 state:published |
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Homo sapiens KC-CS18IER17746 View specimen
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M3#37Computationally reconstructed membranous labyrinth of a human embryo (KC-CS18IER17746) at Carnegie Stage 18 (Crown Rump Length= 12mm). Type: "3D_surfaces"doi: 10.18563/m3.sf37 state:published |
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Homo sapiens KC-CS19IER16127 View specimen
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M3#38Computationally reconstructed membranous labyrinth of a human embryo (KC-CS19IER16127) at Carnegie Stage 19 (Crown Rump Length= 13mm). Type: "3D_surfaces"doi: 10.18563/m3.sf38 state:published |
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Homo sapiens KC-CS20IER20268 View specimen
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M3#39Computationally reconstructed membranous labyrinth of a human embryo (KC-CS20IER20268) at Carnegie Stage 20 (Crown Rump Length= 13.7mm). Type: "3D_surfaces"doi: 10.18563/m3.sf39 state:published |
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Homo sapiens KC-CS21IER28066 View specimen
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M3#40Computationally reconstructed membranous labyrinth of a human embryo (KC-CS21IER28066) at Carnegie Stage 21 (Crown Rump Length= 16.7mm). Type: "3D_surfaces"doi: 10.18563/m3.sf40 state:published |
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Homo sapiens KC-CS22IER35233 View specimen
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M3#41Computationally reconstructed membranous labyrinth of a human embryo (KC-CS22IER35233) at Carnegie Stage 22 (Crown Rump Length= 22mm). Type: "3D_surfaces"doi: 10.18563/m3.sf41 state:published |
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Homo sapiens KC-CS23IER15919 View specimen
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M3#42Computationally reconstructed membranous labyrinth of a human embryo (KC-CS23IER15919) at Carnegie Stage 23 (Crown Rump Length= 32.3mm). Type: "3D_surfaces"doi: 10.18563/m3.sf42 state:published |
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Homo sapiens KC-FIER52730 View specimen
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M3#43Computationally reconstructed human membranous labyrinth in post embryonic phase (KC-FIER52730). Crown Rump Length: 43.5mm. Type: "3D_surfaces"doi: 10.18563/m3.sf43 state:published |
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This contribution contains the 3D models described and figured in the following publication: Georgalis, G.L., G. Guinot, K.E. Kassegne, Y.Z. Amoudji, A.K.C. Johnson, H. Cappetta and L. Hautier. 2021. An assemblage of giant aquatic snakes (Serpentes, Palaeophiidae) from the Eocene of Togo. Swiss Journal of Palaeontology 140, https://doi.org/10.1186/s13358-021-00236-w
Palaeophis africanus UM KPO 21 View specimen
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M3#821Trunk vertebra UM KPO 21 of Palaeophis africanus Type: "3D_surfaces"doi: 10.18563/m3.sf.821 state:published |
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Palaeophis africanus UM KPO 22 View specimen
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M3#822Trunk vertebra UM KPO 22 of Palaeophis africanus from the Eocene of Togo Type: "3D_surfaces"doi: 10.18563/m3.sf.822 state:published |
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Palaeophis africanus UM KPO 23 View specimen
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M3#823Trunk vertebra UM KPO 23 of Palaeophis africanus Type: "3D_surfaces"doi: 10.18563/m3.sf.823 state:published |
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Palaeophis africanus UM KPO 24 View specimen
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M3#824Trunk vertebra UM KPO 24 of Palaeophis africanus Type: "3D_surfaces"doi: 10.18563/m3.sf.824 state:published |
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Palaeophis africanus UM KPO 25 View specimen
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M3#825Trunk vertebra UM KPO 25 of Palaeophis africanus Type: "3D_surfaces"doi: 10.18563/m3.sf.825 state:published |
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Palaeophis africanus UM KPO 26 View specimen
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M3#826Trunk vertebra UM KPO 26 of Palaeophis africanus Type: "3D_surfaces"doi: 10.18563/m3.sf.826 state:published |
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Palaeophis africanus UM KPO 27 View specimen
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M3#827Trunk vertebra UM KPO 27 of Palaeophis africanus Type: "3D_surfaces"doi: 10.18563/m3.sf.827 state:published |
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Palaeophis africanus UM KPO 28 View specimen
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M3#828Trunk vertebra UM KPO 28 of Palaeophis africanus Type: "3D_surfaces"doi: 10.18563/m3.sf.828 state:published |
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Palaeophis africanus UM KPO 29 View specimen
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M3#829Trunk vertebra UM KPO 29 of Palaeophis africanus Type: "3D_surfaces"doi: 10.18563/m3.sf.829 state:published |
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Palaeophis africanus UM KPO 30 View specimen
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M3#830Trunk vertebra UM KPO 30 of Palaeophis africanus Type: "3D_surfaces"doi: 10.18563/m3.sf.830 state:published |
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Palaeophis africanus UM KPO 31 View specimen
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M3#831Trunk vertebra UM KPO 28 of Palaeophis africanus Type: "3D_surfaces"doi: 10.18563/m3.sf.831 state:published |
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Palaeophis africanus UM KPO 32 View specimen
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M3#832Trunk vertebra UM KPO 32 of Palaeophis africanus Type: "3D_surfaces"doi: 10.18563/m3.sf.832 state:published |
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Palaeophis africanus UM KPO 33 View specimen
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M3#833Trunk vertebra UM KPO 33 of Palaeophis africanus Type: "3D_surfaces"doi: 10.18563/m3.sf.833 state:published |
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Palaeophis africanus UM KPO 34 View specimen
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M3#839Trunk vertebra UM KPO 34 of Palaeophis africanus Type: "3D_surfaces"doi: 10.18563/m3.sf.839 state:published |
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Palaeophis africanus UM KPO 35 View specimen
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M3#840Trunk vertebra UM KPO 35 of Palaeophis africanus Type: "3D_surfaces"doi: 10.18563/m3.sf.840 state:published |
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Palaeophis africanus UM KPO 36 View specimen
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M3#841Trunk vertebra UM KPO 36 of Palaeophis africanus Type: "3D_surfaces"doi: 10.18563/m3.sf.841 state:published |
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Palaeophis africanus UM KPO 37 View specimen
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M3#842Trunk vertebra UM KPO 37 of Palaeophis africanus Type: "3D_surfaces"doi: 10.18563/m3.sf.842 state:published |
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The present 3D Dataset contains 3D models of the holotypes described in Aiglstorfer et al. (2023a). Miocene Moschidae (Mammalia, Ruminantia) from the Linxia Basin (China) connect Europe and Asia and show early evolutionary diversity of a today monogeneric family. Palaeogeography, Palaeoclimatology, Palaeoecology.
Micromeryx? caoi CUGB GV 87045 View specimen
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M3#11123D models of the holotype of “Micromeryx” caoi (CUGB GV87045) including the models of the teeth, the mandibule, and the sediment. Type: "3D_surfaces"doi: 10.18563/m3.sf.1112 state:published |
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Hispanomeryx linxiaensis IVPP V28596 View specimen
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M3#11133D models of the holotype of Hispanomeryx linxiaensis (IVPP V28596) including the models of the teeth, the mandibule, and the sediment. Type: "3D_surfaces"doi: 10.18563/m3.sf.1113 state:published |
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This contribution provides the raw files for the μCT-scan data and renderings of the three-dimensional digital models of two fossil teeth of a geomyin geomorph rodent (Caribeomys merzeraudi), discovered from lower Oligocene deposits of Puerto Rico, San Sebastian Formation (locality LACM Loc. 8060). These fossils were described, figured and discussed in the following publication: Marivaux et al. (2021), An unpredicted ancient colonization of the West Indies by North American rodents: dental evidence of a geomorph from the early Oligocene of Puerto Rico. Papers in Palaeontology. https://doi.org/10.1002/spp2.1388
Caribeomys merzeraudi LACM 162478 View specimen
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M3#712Right lower dp4: isolated deciduous premolar. The specimen was scanned with a resolution of 5 µm using a μ-CT-scanning station EasyTom 150 / Rx Solutions (Montpellier RIO Imaging, ISE-M, Montpellier, France). AVIZO 7.1 (Visualization Sciences Group) software was used for visualization, segmentation, and 3D rendering. This isolated tooth was prepared within a “labelfield” module of AVIZO, using the segmentation threshold selection tool. Type: "3D_surfaces"doi: 10.18563/m3.sf.712 state:published |
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M3#7145µm µCT data set . Right lower dp4: isolated deciduous premolar. The specimen was scanned with a resolution of 5 µm using a μ-CT-scanning station EasyTom 150 / Rx Solutions (Montpellier RIO Imaging, ISE-M, Montpellier, France). Type: "3D_CT"doi: 10.18563/m3.sf.714 state:published |
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Caribeomys merzeraudi LACM 162449 View specimen
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M3#713Right lower molar (m1 or m2). The specimen was scanned with a resolution of 4.5 µm using a μ-CT-scanning station EasyTom 150 / Rx Solutions (Montpellier RIO Imaging, ISE-M, Montpellier, France). AVIZO 7.1 (Visualization Sciences Group) software was used for visualization, segmentation, and 3D rendering. This isolated tooth was prepared within a “labelfield” module of AVIZO, using the segmentation threshold selection tool. Type: "3D_surfaces"doi: 10.18563/m3.sf.713 state:published |
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M3#715µCT data at 4.5µm Type: "3D_CT"doi: 10.18563/m3.sf.715 state:published |
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The present 3D Dataset contains the 3D models analyzed in Costeur L., Mennecart B., Müller B., Schulz G., 2016. Prenatal growth stages show the development of the ruminant bony labyrinth and petrosal bone. Journal of Anatomy. https://doi.org/10.1111/joa.12549
Bos taurus NMB3038 View specimen
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M3#124Right bony labyrinth of a Bos taurus foetus (gestational age 115 days) Type: "3D_surfaces"doi: 10.18563/m3.sf.124 state:published |
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Bos taurus NMB3367 View specimen
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M3#125Right bony labyrinth of a Bos taurus foetus (gestational age 165 days) Type: "3D_surfaces"doi: 10.18563/m3.sf.125 state:published |
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Bos taurus NMB3365 View specimen
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M3#126Right bony labyrinth of a Bos taurus foetus (gestational age 210 days) Type: "3D_surfaces"doi: 10.18563/m3.sf.126 state:published |
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Bos taurus NMB2855 View specimen
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M3#127Right bony labyrinth of a Bos taurus foetus (gestational age 260 days) Type: "3D_surfaces"doi: 10.18563/m3.sf.127 state:published |
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Bos taurus NMB1037 View specimen
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M3#128Left bony labyrinth of an adult Bos taurus Type: "3D_surfaces"doi: 10.18563/m3.sf.128 state:published |
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The present 3D Dataset contains the 3D models of the sacral vertebrae analyzed in “Sacral co-ossification in dinosaurs: The oldest record of fused sacral vertebrae in Dinosauria and the diversity of sacral co-ossification patterns in the group”.
Buriolestes schultzi CAPPA/UFSM 0035 View specimen
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M3#705Sacral vertebrae of Buriolestes schultzi Type: "3D_surfaces"doi: 10.18563/m3.sf.705 state:published |
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indet indet CAPPA/UFSM 0228 View specimen
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M3#706Sacral vertebrae of a saurischian dinosaur indet. Type: "3D_surfaces"doi: 10.18563/m3.sf.706 state:published |
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The present 3D Dataset contains the models analyzed in the publication: Menéndez L, Rios C, Acosta Morano C, Novellino P, Schmelzle T, Aguirre-Fernández G, Breidenstein A, Barquera R, Schuenemann VJ, Stafford TW, Sánchez-Villagra M, Barbieri C. (2025). A human skeleton from Última Esperanza, South-West Patagonia, Chile: Osteobiography, morphometric, and genetic analysis. The models include the skull, femur, and the segmented left and right inner ears of a late Holocene human skeleton from southern Patagonia. In the associated paper, we present the radiocarbon dating, an osteobiography profile evaluating some aspects of the life history of this individual, as well as genetic and morphometric analysis assessing biological relatedness to other individuals and populations.
Homo sapiens PIMUZ A/V 4612 View specimen
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M3#1650Homo sapiens skull Type: "3D_surfaces"doi: 10.18563/m3.sf.1650 state:in_press |
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M3#1652Homo sapiens left inner ear Type: "3D_surfaces"doi: 10.18563/m3.sf.1652 state:in_press |
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M3#1653Homo sapiens right inner ear Type: "3D_surfaces"doi: 10.18563/m3.sf.1653 state:in_press |
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Homo sapiens PIMUZ A/V 4613 View specimen
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M3#1651Homo sapiens femur Type: "3D_surfaces"doi: 10.18563/m3.sf.1651 state:in_press |
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