3D model of a Late Oligocene madtsoiid snake
Allometric trajectories in Carboniferous unornamented Polygnathus
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 (15) , Rodolphe Tabuce (13) , Pierre-Olivier Antoine (12) , Bastien Mennecart (12) , Renaud Lebrun (10)
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The petrosal bone of Prodremotherium sp. (Artiodactyla, Ruminantia).Alexandre Assemat
Published online: 13/02/2015 |
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M3#7Labelled 3D model of right isolated petrosal of Prodremotherium sp. from Pech de Fraysse (Quercy, MP 28) Type: "3D_surfaces"doi: 10.18563/m3.sf7 state:published |
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Prodremotherium sp. UM PFY 4054 View specimen
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M3#8Labelled 3D model of right isolated petrosal of Prodremotherium sp. from Pech de Fraysse (Quercy, MP 28) Type: "3D_surfaces"doi: 10.18563/m3.sf8 state:published |
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Macroevolution is integral to understanding the patterns of the diversification of life. As the life sciences increasingly use big data approaches, large multivariate datasets are required to test fundamental macroevolutionary hypotheses. In vertebrate evolution, large datasets have been created to quantify morphological variation, largely focusing on particular areas of the skeleton. We provide a landmarking protocol to quantify morphological variation in skeletal elements across the head, trunk, hindlimb and forelimb using 3-dimensional landmarks and semilandmarks, and present a large pan-skeletal database of bird morphology for 149 taxa across avian phylogeny using CT scan data. This large collection of 3D models and geometric morphometric data is open access and can be used in the future for new research, teaching and outreach. The 3D models and CT scans of the 149 specimens related to this project can be downloaded at MorphoSource (https://www.morphosource.org/projects/00000C420)
Menura novaehollandiae FMNH 336751 View specimen
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M3#5613D model of the left carpometacarpus of the superb lyrebird, Menura novaehollandia (displayed as a mirror image in the 3DHOP viewer). Type: "3D_surfaces"doi: 10.18563/m3.sf.561 state:published |
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M3#5623D model of the mandible of the superb lyrebird, Menura novaehollandiae. Type: "3D_surfaces"doi: 10.18563/m3.sf.562 state:published |
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M3#5633D model of the right coracoid of the superb lyrebird, Menura novaehollandiae. Type: "3D_surfaces"doi: 10.18563/m3.sf.563 state:published |
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M3#5643D model of the right scapula of the superb lyrebird, Menura novaehollandiae. Type: "3D_surfaces"doi: 10.18563/m3.sf.564 state:published |
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M3#5653D model of the right tarsometatarsus of the superb lyrebird, Menura novaehollandiae. Type: "3D_surfaces"doi: 10.18563/m3.sf.565 state:published |
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M3#5663D model of the sternum of the superb lyrebird, Menura novaehollandiae. Type: "3D_surfaces"doi: 10.18563/m3.sf.566 state:published |
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M3#5673D model of the left femur of the superb lyrebird, Menura novaehollandiae (displayed as a mirror image in the 3DHOP viewer). Type: "3D_surfaces"doi: 10.18563/m3.sf.567 state:published |
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M3#5683D model of the skull of the superb lyrebird, Menura novaehollandiae. Type: "3D_surfaces"doi: 10.18563/m3.sf.568 state:published |
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M3#5693D model of the left humerus of the superb lyrebird, Menura novaehollandiae (displayed as a mirror image in the 3DHOP viewer). Type: "3D_surfaces"doi: 10.18563/m3.sf.569 state:published |
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M3#5703D model of the synsacrum of the superb lyrebird, Menura novaehollandiae. Type: "3D_surfaces"doi: 10.18563/m3.sf.570 state:published |
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M3#5713D model of the left radius of the superb lyrebird, Menura novaehollandiae (displayed as a mirror image in the 3DHOP viewer). Type: "3D_surfaces"doi: 10.18563/m3.sf.571 state:published |
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M3#5723D model of the left tibiotarsus of the superb lyrebird, Menura novaehollandiae (displayed as a mirror image in the 3DHOP viewer). Type: "3D_surfaces"doi: 10.18563/m3.sf.572 state:published |
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M3#5733D model of the left ulna of the superb lyrebird, Menura novaehollandiae (displayed as a mirror image in the 3DHOP viewer). Type: "3D_surfaces"doi: 10.18563/m3.sf.573 state:published |
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The present 3D Dataset contains 3D models of the cranial, visceral, and pectoral endoskeleton of Iniopera, an iniopterygian stem-group holocephalan from the Pennsylvanian of the USA. These data formed the basis for the analyses carried out in Dearden et al. (2023) “Evidence for high-performance suction feeding in the Pennsylvanian stem-group holocephalan Iniopera” PNAS.
Iniopera sp. KUNHM 22060, 158289 View specimen
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M3#1034plys of the head endoskeleton of Iniopera sp. Type: "3D_surfaces"doi: 10.18563/m3.sf.1034 state:published |
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The present 3D Dataset contains the 3D model of a specimen of Metamynodon planifrons (UNISTRA.2015.0.1106) described and figured in: Veine-Tonizzo, L., Tissier, J., Bukhsianidze, M., Vasilyan, D., Becker, D., 2023, Cranial morphology and phylogenetic relationships of Amynodontidae Scott & Osborn, 1883 (Perissodactyla, Rhinocerotoidea).
Metamynodon planifrons UNISTRA.2015.0.1106 View specimen
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M3#716Textured 3D surface model of the skull of the specimen UNISTRA.2015.0.1106 with right C1 and both rows of P2-M3. Type: "3D_surfaces"doi: 10.18563/m3.sf.716 state:published |
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Current knowledge on the skeletogenesis of Chondrichthyes is scarce compared with their extant sister group, the bony fishes. Most of the previously described developmental tables in Chondrichthyes have focused on embryonic external morphology only. Due to its small body size and relative simplicity to raise eggs in laboratory conditions, the small-spotted catshark Scyliorhinus canicula has emerged as a reference species to describe developmental mechanisms in the Chondrichthyes lineage. Here we investigate the dynamic of mineralization in a set of six embryonic specimens using X-ray microtomography and describe the developing units of both the dermal skeleton (teeth and dermal scales) and endoskeleton (vertebral axis). This preliminary data on skeletogenesis in the catshark sets the first bases to a more complete investigation of the skeletal developmental in Chondrichthyes. It should provide comparison points with data known in osteichthyans and could thus be used in the broader context of gnathostome skeletal evolution.
Scyliorhinus canicula SC6_2_2015_03_20 View specimen
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M3#50Mineralized skeleton of a 6,2 cm long embryo of Scyliorhinus canicula Type: "3D_surfaces"doi: 10.18563/m3.sf.50 state:published |
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Scyliorhinus canicula SC6_7_2015_03_20 View specimen
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M3#51Mineralized skeleton of a 6,7 cm long embryo of Scyliorhinus canicula Type: "3D_surfaces"doi: 10.18563/m3.sf.51 state:published |
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Scyliorhinus canicula SC7_1_2015_04_03 View specimen
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M3#52Mineralized skeleton of a 7,1 cm long embryo of Scyliorhinus canicula Type: "3D_surfaces"doi: 10.18563/m3.sf.52 state:published |
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Scyliorhinus canicula SC7_5_2015_03_13 View specimen
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M3#53Mineralized skeleton of a 7,5 cm long embryo of Scyliorhinus canicula Type: "3D_surfaces"doi: 10.18563/m3.sf.53 state:published |
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Scyliorhinus canicula SC8_2015_03_20 View specimen
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M3#54Mineralized skeleton of a 8 cm long embryo of Scyliorhinus canicula Type: "3D_surfaces"doi: 10.18563/m3.sf.54 state:published |
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Scyliorhinus canicula SC10_2015_02_27 View specimen
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M3#55Mineralized skeleton of a 10 cm long embryo of Scyliorhinus canicula Type: "3D_surfaces"doi: 10.18563/m3.sf.55 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 described and figured in the following publication: Martin, T., Averianov, A. O., Schultz, J. A., & Schwermann, A. H. (2023). A stem therian mammal from the Lower Cretaceous of Germany. Journal of Vertebrate Paleontology, e2224848.
Spelaeomolitor speratus WMNM P99101 View specimen
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M3#12573D_model_Spelaeomolitor_lower_molar Type: "3D_surfaces"doi: 10.18563/m3.sf.1257 state:published |
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M3#1258CT imagestack (jpgs) and info data sheet (pca file) in one zip folder Type: "3D_CT"doi: 10.18563/m3.sf.1258 state:published |
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The present Dataset contains the micro-CT scan of the head of an anonymous 54 year old female donor, at a voxel resolution of 145µm. The skin of the face has been masked in order to avoid the donor to be recognized.
Homo sapiens UM_HS_2018_09_13 View specimen
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M3#1152Micro-ct data set Type: "3D_CT"doi: 10.18563/m3.sf.1152 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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Considerable morphological variations are found in the middle ear among mammals. Here I present a three-dimensional atlas of the middle ear ossicles of eulipotyphlan mammals. This group has radiated into various environments as terrestrial, aquatic, and subterranean habitats independently in multiple lineages. Therefore, eulipotyphlans are an ideal group to explore the form-function relationship of the middle ear ossicles. This comparative atlas of hedgehogs, true shrews, water shrews, mole shrews, true moles, and shrew moles encourages future studies of the middle ear morphology of this diverse group.
Erinaceus europaeus DK2331 View specimen
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M3#151Left middle ear ossicles Type: "3D_surfaces"doi: 10.18563/m3.sf.151 state:published |
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Anourosorex yamashinai SIK_yamashinai View specimen
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M3#152Left middle ear ossicles Type: "3D_surfaces"doi: 10.18563/m3.sf.152 state:published |
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Blarina brevicauda M8003 View specimen
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M3#153Right middle ear ossicles Type: "3D_surfaces"doi: 10.18563/m3.sf.153 state:published |
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Chimarrogale platycephala DK5481 View specimen
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M3#162Left middle ear ossicles Type: "3D_surfaces"doi: 10.18563/m3.sf.162 state:published |
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Suncus murinus DK1227 View specimen
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M3#155Left middle ear ossicles Type: "3D_surfaces"doi: 10.18563/m3.sf.155 state:published |
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Condylura cristata SIK0050 View specimen
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M3#156Right middle ear ossicles Type: "3D_surfaces"doi: 10.18563/m3.sf.156 state:published |
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Euroscaptor klossi SIK0673 View specimen
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M3#163Left middle ear ossicles Type: "3D_surfaces"doi: 10.18563/m3.sf.163 state:published |
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Euroscaptor malayana SIK_malayana View specimen
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M3#164Left middle ear ossicles Type: "3D_surfaces"doi: 10.18563/m3.sf.164 state:published |
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Mogera wogura DK2551 View specimen
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M3#159Left middle ear ossicles Type: "3D_surfaces"doi: 10.18563/m3.sf.159 state:published |
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Talpa altaica SIK_altaica View specimen
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M3#161Right middle ear ossicles Type: "3D_surfaces"doi: 10.18563/m3.sf.161 state:published |
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Urotrichus talpoides DK0887 View specimen
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M3#165Left middle ear ossicles Type: "3D_surfaces"doi: 10.18563/m3.sf.165 state:published |
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Oreoscaptor mizura DK6545 View specimen
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M3#166Left middle ear ossicles Type: "3D_surfaces"doi: 10.18563/m3.sf.166 state:published |
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Scalopus aquaticus SIK_aquaticus View specimen
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M3#167Left middle ear ossicles Type: "3D_surfaces"doi: 10.18563/m3.sf.167 state:published |
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Scapanus orarius SIK_orarius View specimen
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M3#168Left middle ear ossicles Type: "3D_surfaces"doi: 10.18563/m3.sf.168 state:published |
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Neurotrichus gibbsii SIK_gibbsii View specimen
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M3#169Left middle ear ossicles Type: "3D_surfaces"doi: 10.18563/m3.sf.169 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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The present 3D Dataset contains the 3D model analyzed in The largest freshwater odontocete: a South Asian river dolphin relative from the Proto-Amazonia.
Pebanista yacuruna MUSM 4017 View specimen
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M3#1394Holotype skull of Pebanista yacuruna MUSM 4017 Type: "3D_surfaces"doi: 10.18563/m3.sf.1394 state:published |
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This contribution contains the three-dimensional models of the inner ear of the hetaxodontid rodents Amblyrhiza, Clidomys and Elasmodontomys from the West Indies. These specimens were analyzed and discussed in : The inner ear of caviomorph rodents: phylogenetic implications and application to extinct West Indian taxa.
Amblyrhiza inundata 11842 View specimen
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M3#11543D surface of the left-oriented inner ear of Amblyrhiza. Type: "3D_surfaces"doi: 10.18563/m3.sf.1154 state:published |
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Clidomys sp NA View specimen
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M3#11553D surface of the left-oriented inner ear of Clidomys sp. Type: "3D_surfaces"doi: 10.18563/m3.sf.1155 state:published |
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Elasmodontomys obliquus 17127 View specimen
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M3#11563D surface of the left-oriented inner ear of Elasmodontomys obliquus. Type: "3D_surfaces"doi: 10.18563/m3.sf.1156 state:published |
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Turtles are one of the most impressive vertebrates. Much of the body is either hidden in a shell or can be drawn into it. Turtles impress with their individual longevity and their often peaceful disposition. Also, with their resilience, they have survived all extinction events since their emergence in the Late Triassic. Today's diversity of shapes is impressive and ranges from the large and high domed Galapagos turtles to the hamster-sized flat pancake turtles. The holotype of one of the oldest fossil turtles, Proganochelys quenstedtii, is housed in the paleontological collection in Tübingen/Germany. Since its discovery some years before 1873, P. quenstedtii has represented the 'prototype' of the turtle and has had an eventful scientific history. It was found in Neuenhaus (Häfner-Neuhausen in Schönbuch forest), Baden-Württemberg, Germany, and stems from Löwenstein-Formation (Weißer Keupersandstein), Late Triassic. The current catalogue number is GPIT-PV-30000. The specimen is listed in the historical inventory “Tübinger Petrefaktenverzeichnis 1841 bis 1896, [folio 326v.]“, as “[catalogue number: PV]16549, Schildkröte Weiser Keupersandstein Hafnerhausen” [turtle from White Keuper Sandstone]. Another, more recent synonym is “GPIT/RE/9396”. The same specimen was presented as uncatalogued by Gaffney (1990). Here we provide a surface scan of the steinkern for easier access of this famous specimen to the scientific community.
Proganochelys quenstedtii GPIT-PV-30000 View specimen
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M3#967This the surface model of the steinkern of the shell of Proganochelys quenstedtii. Type: "3D_surfaces"doi: 10.18563/m3.sf.967 state:published |
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This contribution contains the 3D model described and figured in the following publication: New turtles from the Late Cretaceous of Monte Alto-SP, Brazil, including cranial osteology, neuroanatomy and phylogenetic position of a new taxon. PalZ. https://doi.org/10.1007/s12542-017-0397-x
Yuraramirim montealtensis 04-0008/89 View specimen
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M3#2783D surfaces related to specimen MPMA 04-0008/89. Type: "3D_surfaces"doi: 10.18563/m3.sf.278 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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This contribution contains the 3D models described and figured in the following publication: Hautier L, Tabuce R, Kassegne KE, Amoudji YZ, Mourlam M, Orliac M, Quillévéré F, Charruault A-L, Johnson AKC, Guinot G. 2021. New middle Eocene proboscidean from Togo illuminates the early evolution of the elephantiform-like dental pattern.
Dagbatitherium tassyi ULDG-DAG1 View specimen
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M3#7693D model of a molar of Dagbatitherium tassyi. Type: "3D_surfaces"doi: 10.18563/m3.sf.769 state:published |
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M3#771µCT scan of a molar of Dagbatitherium tassyi. Type: "3D_CT"doi: 10.18563/m3.sf.771 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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This contribution contains the 3D models described and figured in: New remains of Neotropical bunodont litopterns and the systematics of Megadolodinae (Mammalia: Litopterna). Geodiversitas.
Megadolodus molariformes VPPLT 974 View specimen
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M3#1020Partial mandible with the symphysis and left body, bearing the alveoli of ?i2, right and left ?i3, alveolus of right c and p1, roots of left p1, and the left p2–m3 of Megadolodus molariformes (Litopterna, Mammalia) Type: "3D_surfaces"doi: 10.18563/m3.sf.1020 state:published |
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Neodolodus colombianus VPPLT 1696 View specimen
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M3#1021Almost complete skull with left and right ?I2 and P1–M3 Type: "3D_surfaces"doi: 10.18563/m3.sf.1021 state:published |
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M3#1022Partial mandible with complete right and left dentition except for left ?i2 Type: "3D_surfaces"doi: 10.18563/m3.sf.1022 state:published |
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The present 3D Dataset contains the 3D models of the holotype mandible and referred fragmented skull of the new species Amphimoschus xishuiensis analyzed in the article Li, Y.-K., Mennecart, B., Aiglstorfer, M., Ni, X.-J., Li, Q., Deng, T. 2021. The early evolution of cranial appendages in Bovoidea revealed by new species of Amphimoschus (Mammalia: Ruminantia) from China. Zoological Journal of the Linnean Society https://doi.org/10.1093/zoolinnean/zlab053
Amphimoschus xishuiensis IVPP V 25521.1 View specimen
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M3#803the holotype, a right hemimandible with tooth row p2 to m3 Type: "3D_surfaces"doi: 10.18563/m3.sf.803 state:published |
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Amphimoschus xishuiensis IVPP V 25521.2 View specimen
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M3#804referred material, anterior part of a skull with right P4-M3 and left P3-M2 Type: "3D_surfaces"doi: 10.18563/m3.sf.804 state:published |
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