Explodable 3D Dog Skull for Veterinary Education
3D models of teeth and neurovascular system in the rostrum of Spinosauridae (theropod dinosaurs)
3D models of Ocnotherium skull
3D GM dataset of bird skeletal variation
Skeletal embryonic development in the catshark
Bony connexions of the petrosal bone of extant hippos
bony labyrinth (14) , inner ear (11) , Eocene (11) , geometric morphometrics (10) , CT-scan (10) , Oligocene (9) , Micro-CT (9)
Lionel Hautier (25) , Maëva Judith Orliac (24) , Laurent Marivaux (19) , Bastien Mennecart (16) , Renaud Lebrun (15) , Rodolphe Tabuce (15) , Pierre-Olivier Antoine (13)
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3D surface scan of the type specimen of Molassitherium delemontense Becker and Antoine, 2013: use of a 3D model for research and conservation issuesOlivier Maridet
Published online: 19/02/2019 |
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M3#384Skull of Molassitherium delemontense Becker and Antoine, 2013 (in Becker et al. 2013): holotype Type: "3D_surfaces"doi: 10.18563/m3.sf.384 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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This contribution contains the three-dimensional digital models of eleven isolated fossil teeth of a merialine paroxyclaenid (Welcommoides gurki), discovered from lower Oligocene deposits of the Bugti Hills (Balochistan, Pakistan). These fossils were described, figured and discussed in the following publication: Solé et al. (2024), An unexpected late paroxyclaenid (Mammalia, Cimolesta) out of Europe: dental evidence from the Oligocene of the Bugti Hills, Pakistan. Papers in Palaeontology. https://doi.org/10.1002/spp2.1599
Welcommoides gurki UM-DBC 2225 View specimen
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M3#1083Left m3 Type: "3D_surfaces"doi: 10.18563/m3.sf.1083 state:published |
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Welcommoides gurki UM-DBC 2226 View specimen
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M3#1084Right m3 Type: "3D_surfaces"doi: 10.18563/m3.sf.1084 state:published |
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Welcommoides gurki UM-DBC 2227 View specimen
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M3#1085Trigonid of a right lower molar Type: "3D_surfaces"doi: 10.18563/m3.sf.1085 state:published |
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Welcommoides gurki UM-DBC 2230 View specimen
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M3#1086Right DP4 Type: "3D_surfaces"doi: 10.18563/m3.sf.1086 state:published |
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Welcommoides gurki UM-DBC 2228 View specimen
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M3#1093Right M1 Type: "3D_surfaces"doi: 10.18563/m3.sf.1093 state:published |
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Welcommoides gurki UM-DBC 2229 View specimen
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M3#1087Right M2 Type: "3D_surfaces"doi: 10.18563/m3.sf.1087 state:published |
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Welcommoides gurki UM-DBC 2236 View specimen
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M3#1088Left M2 Type: "3D_surfaces"doi: 10.18563/m3.sf.1088 state:published |
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Welcommoides gurki UM-DBC 2231 View specimen
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M3#1089Left M3 Type: "3D_surfaces"doi: 10.18563/m3.sf.1089 state:published |
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Welcommoides gurki UM-DBC 2232 View specimen
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M3#1090Left M3 Type: "3D_surfaces"doi: 10.18563/m3.sf.1090 state:published |
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Welcommoides gurki UM-DBC 2234 View specimen
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M3#1091Left M3 Type: "3D_surfaces"doi: 10.18563/m3.sf.1091 state:published |
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Welcommoides gurki UM-DBC 2233 View specimen
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M3#1092Left M3 Type: "3D_surfaces"doi: 10.18563/m3.sf.1092 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 models described and figured in the following publication: Mennecart B., de Perthuis Ad., Rössner G.E., Guzmán J.A., de Perthuis Au., Costeur L. The first French tragulid skull (Mammalia, Ruminantia, Tragulidae) and associated tragulid remains from the Middle Miocene of Contres (Loir-et-Cher, France). Comptes Rendus Palévol. https://doi.org/10.1016/j.crpv.2017.08.004
Dorcatherium crassum NMB Fa.213.abg View specimen
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M3#181The 3D surface files of the specimen NMB Fa.213 are the reconstructions of the main skull fragments, the right petrosal bone, and the left bony labyrinth. Type: "3D_surfaces"doi: 10.18563/m3.sf.181 state:published |
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This contribution contains 3D models of mandibles of Cypriot mice (Mus cypriacus) and house mice (Mus musculus domesticus) from the island of Cyprus. The niche partitioning of the two species was investigated using isotopic ecology, geometric morphometrics and biomechanics. Both species displayed generalist feeding behavior, modulated by fine-tuned adaptation to their feeding habits. The house mouse mandible, with a relatively large masseter area and an optimization for incisor biting, appears as an all-rounder tool for foraging on diverse non-natural items.
These models are analyzed in the following publication: Renaud et al 2024, “Trophic differentiation between the endemic Cypriot mouse and the house mouse: a study coupling stable isotopes and morphometrics”, https://doi.org/10.1007/s10914-024-09740-5
Mus cypriacus Cypriacus_5GE View specimen
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M3#15843D model of the right mandible Type: "3D_surfaces"doi: 10.18563/m3.sf.1584 state:published |
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Mus cypriacus Cypriacus_BET2 View specimen
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M3#15853D model of the right mandible Type: "3D_surfaces"doi: 10.18563/m3.sf.1585 state:published |
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Mus cypriacus Cypriacus_FON1 View specimen
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M3#15863D model of the right mandible Type: "3D_surfaces"doi: 10.18563/m3.sf.1586 state:published |
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Mus cypriacus Cypriacus_FON2 View specimen
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M3#15873D model of the right mandible Type: "3D_surfaces"doi: 10.18563/m3.sf.1587 state:published |
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Mus cypriacus Cypriacus_KOU1 View specimen
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M3#15883D model of the right mandible Type: "3D_surfaces"doi: 10.18563/m3.sf.1588 state:published |
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Mus musculus Cyprus_dom_KOF1 View specimen
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M3#15893D model of the right mandible Type: "3D_surfaces"doi: 10.18563/m3.sf.1589 state:published |
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Mus musculus Cyprus_dom_LEF1 View specimen
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M3#15903D model of the right mandible Type: "3D_surfaces"doi: 10.18563/m3.sf.1590 state:published |
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Mus musculus Cyprus_dom_MEN1 View specimen
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M3#15913D model of the right mandible Type: "3D_surfaces"doi: 10.18563/m3.sf.1591 state:published |
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Mus musculus Cyprus_dom_TSE2 View specimen
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M3#15923D model of the mirrored left mandible Type: "3D_surfaces"doi: 10.18563/m3.sf.1592 state:published |
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Mus musculus Cyprus_dom_XYL5 View specimen
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M3#15933D model of the right mandible Type: "3D_surfaces"doi: 10.18563/m3.sf.1593 state:published |
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The present 3D Dataset contains the 3D models of a skull and lower jaw of the holotype of Santagnathus mariensis, described in “Old fossil findings in the Upper Triassic rocks of southern Brazil improve diversity of traversodontid cynodonts (Therapsida, Cynodontia)”
Santagnathus mariensis UFRGS-PV-1419-T View specimen
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M3#1157Skull Type: "3D_surfaces"doi: 10.18563/m3.sf.1157 state:published |
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M3#1158Lower jaw Type: "3D_surfaces"doi: 10.18563/m3.sf.1158 state:published |
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The present 3D Dataset contains the 3D model analyzed in the following publication: occurrence of the ground sloth Nothrotheriops (Xenarthra, Folivora) in the Late Pleistocene of Uruguay: New information on its dietary and habitat preferences based on stable isotope analysis. Journal of Mammalian Evolution. https://doi.org/10.1007/s10914-023-09660-w
Nothrotheriops sp. CAV 1466 View specimen
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M3#1129Left humerus Type: "3D_surfaces"doi: 10.18563/m3.sf.1129 state:published |
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The present 3D Dataset contains the 3D models analyzed in Pochat-Cottilloux Y., Martin J.E., Jouve S., Perrichon G., Adrien J., Salaviale C., de Muizon C., Cespedes R. & Amiot R. (2021). The neuroanatomy of Zulmasuchus querejazus (Crocodylomorpha, Sebecidae) and its implications for the paleoecology of sebecosuchians. The Anatomical Record, https://doi.org/10.1002/ar.24826
Zulmasuchus querejazus MHNC 6672 View specimen
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M3#798Left endosseous labyrinth of Z. querejazus (MHNC 6672). Type: "3D_surfaces"doi: 10.18563/m3.sf.798 state:published |
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M3#799Reconstruction of the endocranial cavities of Z. querejazus (MHNC 6672). Type: "3D_surfaces"doi: 10.18563/m3.sf.799 state:published |
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M3#800Three-dimensional reconstruction of the pneumatic cavities within the braincase of Z. querejazus (MHNC 6672) Type: "3D_surfaces"doi: 10.18563/m3.sf.800 state:published |
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The present 3D Dataset contains the 3D models analyzed in Neogene sloth assemblages (Mammalia, Pilosa) of the Cocinetas Basin (La Guajira, Colombia): implications for the Great American Biotic Interchange. Palaeontology. doi: 10.1111/pala.12244
cf. Nothrotherium indet. MUN STRI 12924 View specimen
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M3#106Fragmentary basicranium with posterior portion of the skull roof. Type: "3D_surfaces"doi: 10.18563/m3.sf.106 state:published |
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indet. indet. MUN STRI 16535 View specimen
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M3#107Complete left ulna of a Scelidotheriinae gen. et sp. indet. Type: "3D_surfaces"doi: 10.18563/m3.sf.107 state:published |
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In this contribution a third new species of the rare genus Burmesescorpiops Lourenço, 2016 is described. The discovery of this new element belonging to the family Palaeoeuscorpiidae Lourenço, 2003 and to the subfamily Archaeoscorpiopinae Lourenço, 2015 brings further elements to support the validity of the genus Burmesescorpiops. This generic group remains however, poorly speciose. This is the latest discovery of Burmesescorpiops wunpawng, the name is derived from the Kachin Hilltribe peoples who are indigenous to the area. The data provided here is a 3D surface.
Burmesescorpiops wunpawng ps-gyi-01-25 View specimen
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M3#18463d Surface Volume Type: "3D_surfaces"doi: 10.18563/m3.sf.1846 state:published |
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This contribution contains the 3D models described and figured in the following publication: Tabuce R., Marandat B., Adnet S., Gernelle K., Girard F., Marivaux L., Solé F., Schnyder J., Steurbaut E., Storme J.-Y., Vianey-Liaud M., Yans J. (2025). European mammal turnover driven by a global rapid warming event preceding the Paleocene-Eocene Thermal Maximum. PNAS. https://doi.org/10.1073/pnas.2505795122
Acritoparamys aff. atavus UM-ALB-41 View specimen
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M3#17653D digital model Type: "3D_surfaces"doi: 10.18563/m3.sf.1765 state:published |
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Acritoparamys aff. atavus UM-ALB-42 View specimen
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M3#1766m1 (right) Type: "3D_surfaces"doi: 10.18563/m3.sf.1766 state:published |
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Acritoparamys aff. atavus UM-ALB-43 View specimen
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M3#1767M3 (right) Type: "3D_surfaces"doi: 10.18563/m3.sf.1767 state:published |
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indet. indet. UM-ALB-7 View specimen
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M3#1768M1or2 (left) Type: "3D_surfaces"doi: 10.18563/m3.sf.1768 state:published |
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Arcius cf. rougieri UM-ALB-3 View specimen
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M3#1769m2 (left) Type: "3D_surfaces"doi: 10.18563/m3.sf.1769 state:published |
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Arfia sp. UM-ALB-2 View specimen
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M3#1770M1or2 (right) Type: "3D_surfaces"doi: 10.18563/m3.sf.1770 state:published |
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Bustylus sp. UM-ALB-37 View specimen
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M3#1771M1 (left) Type: "3D_surfaces"doi: 10.18563/m3.sf.1771 state:published |
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?Corbarimys sp. UM-ALB-44 View specimen
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M3#1772M1or2 (left) Type: "3D_surfaces"doi: 10.18563/m3.sf.1772 state:published |
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indet. indet. UM-ALB-26 View specimen
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M3#1773upper molar (right) Type: "3D_surfaces"doi: 10.18563/m3.sf.1773 state:published |
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indet. indet. UM-ALB-39 View specimen
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M3#1774m1or2 (left) Type: "3D_surfaces"doi: 10.18563/m3.sf.1774 state:published |
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Paschatherium marianae UM-ALB-4 View specimen
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M3#1775P4 (right) Type: "3D_surfaces"doi: 10.18563/m3.sf.1775 state:published |
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Paschatherium marianae UM-ALB-5 View specimen
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M3#1776DP4 (right) Type: "3D_surfaces"doi: 10.18563/m3.sf.1776 state:published |
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Paschatherium marianae UM-ALB-8 View specimen
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M3#1777mandible with m2 and talonid of m1 (left) Type: "3D_surfaces"doi: 10.18563/m3.sf.1777 state:published |
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Paschatherium marianae UM-ALB-10 View specimen
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M3#1778M3 (righ Type: "3D_surfaces"doi: 10.18563/m3.sf.1778 state:published |
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Paschatherium marianae UM-ALB-22 View specimen
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M3#1779m3 (right) Type: "3D_surfaces"doi: 10.18563/m3.sf.1779 state:published |
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Paschatherium marianae UM-ALB-33 View specimen
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M3#1780M2 (right) Type: "3D_surfaces"doi: 10.18563/m3.sf.1780 state:published |
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Peratherium sp. UM-ALB-12 View specimen
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M3#1781?m2 (left) Type: "3D_surfaces"doi: 10.18563/m3.sf.1781 state:published |
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Peratherium sp. UM-ALB-23 View specimen
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M3#1782?M2 (right) Type: "3D_surfaces"doi: 10.18563/m3.sf.1782 state:published |
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Peratherium sp. UM-ALB-25 View specimen
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M3#1783?M3 (left) Type: "3D_surfaces"doi: 10.18563/m3.sf.1783 state:published |
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Plagioctenodon cf. dormaalensis UM-ALB-16 View specimen
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M3#1784M1or2 (right) Type: "3D_surfaces"doi: 10.18563/m3.sf.1784 state:published |
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Plagioctenodon cf. dormaalensis UM-ALB-18 View specimen
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M3#1785P4 (right) Type: "3D_surfaces"doi: 10.18563/m3.sf.1785 state:published |
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gen. nov. sp. nov. UM-ALB-27 View specimen
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M3#1786M1or2 (left) Type: "3D_surfaces"doi: 10.18563/m3.sf.1786 state:published |
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Teilhardimys cf. reisi UM-ALB-36a View specimen
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M3#1787M2 (right) Type: "3D_surfaces"doi: 10.18563/m3.sf.1787 state:published |
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Teilhardimys cf. reisi UM-ALB-36b View specimen
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M3#1788M1 (right) Type: "3D_surfaces"doi: 10.18563/m3.sf.1788 state:published |
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Wyonycteris sp. UM-ALB-19 View specimen
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M3#1789M1or2 (right) Type: "3D_surfaces"doi: 10.18563/m3.sf.1789 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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This contribution contains the 3D models described and figured in the following publication: Paulina-Carabajal, A. and Nieto, M. N. In press. Brief comment on the brain and inner ear of Giganotosaurus carolinii (Dinosauria: Theropoda) based on CT scans. Ameghiniana. https://doi.org/10.5710/AMGH.25.10.2019.3237
Giganotosaurus carolinii MUCPv-CH-1 View specimen
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M3#504The current file contents 3D models of the braincase, brain, left and right inner ears Type: "3D_surfaces"doi: 10.18563/m3.sf.504 state:published |
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Archaeozoological studies are increasingly using new methods and approaches to explore questions about domestication. Here, we provide 3D models of three archaeological Canis lupus skulls from Belgium originating from the sites of Goyet (31,680±250BP; 31,890+240/-220BP), Trou des Nutons (21,810±90BP) and Trou Balleux (postglacial). Since their identification as either wolves or early dogs is still debated, we present these models as additional tools for further investigating their evolutionary history and the history of dog domestication.
Canis lupus Goyet 2860 View specimen
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M3#213D surface model of the cranium of the Late Pleistocene Canis lupus "Goyet 2860" from the Royal Belgian Institute of Natural Sciences. Type: "3D_surfaces"doi: 10.18563/m3.sf21 state:published |
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Canis lupus Trou Balleux no-nr View specimen
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M3#223D surface model of the cranium of the Late Pleistocene Canis lupus "Trou Balleux no-nr" from the University of Liège, Belgium Type: "3D_surfaces"doi: 10.18563/m3.sf22 state:published |
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Canis lupus Trou des Nutons 2559-1 View specimen
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M3#233D surface model of the cranium of the Late Pleistocene Canis lupus "Trou des Nutons 2559-1" from the Royal Belgian Institute of Natural Sciences. Type: "3D_surfaces"doi: 10.18563/m3.sf23 state:published |
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This contribution contains the 3D model described and figured in the following publication: Hautier L, Sarr R, Lihoreau F, Tabuce R, Marwan Hameh P. 2014. First record of the family Protocetidae in the Lutetian of Senegal (West Africa). Palaeovertebrata 38(2)-e2
indet. indet. SN103 View specimen
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M3#5SN103, partial left innominate. Age and occurrence – Taïba Formation, Lutetian of the near Taïba Ndiaye, quarry of the Industries Chimiques du Sénégal (ICS) Type: "3D_surfaces"doi: 10.18563/m3.sf5 state:published |
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The present 3D Dataset contains the 3D model of a skull analyzed in “A Puma concolor (Carnivora: Felidae) in the Middle-Late Holocene landscapes of the Brazilian Northeast (Bahia): submerged cave deposits and stable isotopes”. The 3D model was generated by photogrammetry.
Puma concolor MN 57461 View specimen
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M3#843Cranium Type: "3D_surfaces"doi: 10.18563/m3.sf.843 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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This project presents the osteological connexions of the petrosal bone of the extant Hippopotamidae Hippopotamus amphibius and Choeropsis liberiensis by a virtual osteological dissection of the ear region. The petrosal, the bulla, the sinuses and the major morphological features surrounding the petrosal bone are labelled, both in situ and in an exploded model presenting disassembly views. The directional underwater hearing mode of Hippopotamidae is discussed based on the new observations.
Choeropsis liberiensis UPPal-M09-5-005a View specimen
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M3#1Labelled compact model of the right ear region of Choeropsis liberiensis (UPPal-M09-5-005a) Type: "3D_surfaces"doi: 10.18563/m3.sf1 state:published |
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M3#2Labelled exploded model of the right ear region of Choeropsis liberiensis (UPPal-M09-5-005a) Type: "3D_surfaces"doi: 10.18563/m3.sf2 state:published |
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Hippopotamus amphibius UM N179 View specimen
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M3#3Labelled compact model of the right ear region of Hippopotamus amphibius (UM N 179) Type: "3D_surfaces"doi: 10.18563/m3.sf3 state:published |
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M3#4Labelled exploded model of the right ear region of Hippopotamus amphibius (UM N 179) Type: "3D_surfaces"doi: 10.18563/m3.sf4 state:published |
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The 3D dataset presented in this article provides the 3D models of two Chelonioidea turtles dentaries from the Paleocene of France described in: Lapparent de Broin F. de, Marek H., Barrier P. & Gagnaison C. 2025. — Euclastidae n. fam. (Chelonioidea) et première mention d’Euclastes Cope, 1867 dans le Paléocène du bassin de Paris (France). Geodiversitas 47 (10): 409-464. https://doi.org/10.5252/geodiversitas2025v47a10.
Euclastes wielandi ULB-04A21-10 View specimen
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M3#1791Euclastes wielandi Type: "3D_surfaces"doi: 10.18563/m3.sf.1791 state:published |
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Euclastes wielandi MNHN.F.BPT52 View specimen
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M3#1709Euclastes wielandi (cast) Type: "3D_surfaces"doi: 10.18563/m3.sf.1709 state:published |
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Euclastes wielandi ULB-04A21-11 View specimen
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M3#1792Euclastes montenati nov. sp. Type: "3D_surfaces"doi: 10.18563/m3.sf.1792 state:published |
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Euclastes wielandi MNHN.F.BPT53 View specimen
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M3#1711Euclastes montenati (cast) Type: "3D_surfaces"doi: 10.18563/m3.sf.1711 state:published |
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