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Fig. 3 in Reassessment of the generic attribution of Numidotherium savagei and the homologies of lower incisors in proboscideans
Fig. 3. Dental elements of the proboscidean Arcanotherium savagei (Court, 1995), from the Evaporite (A and C, late Eocene) and Idam (B, early Oligocene) units of Dor El Talha, Libya. A. Erupting left i1 (BMNH M. 82183) in occlusal (A1), lateral (A2), and anterior (A3) views. B. Right M1 (BMNH M. 82172) in buccal (B1), occlusal (B2), and lingual (B3) views. C. Right M2 (BMNH M. 82398) in buccal (C1), occlusal (C2), and lingual (C3) views. D. Left M3 (MNHN LBE 20) in buccal (D1), occlusal (D2), and lingual (D3) views.
Fig. 6 in Lower deciduous tooth homologies in Erethizontidae (Rodentia, Hystricognathi): Evolutionary significance
Fig. 6. Lophid homologies for lower deciduous teeth (dp4) of Erethizontidae according to this study. The arrows point in the direction of the change from pentalophodonty (A) towards tetra− (B), and hexalophodonty (C). All drawn as if from the right side.
Fig. 3 in Lower deciduous tooth homologies in Erethizontidae (Rodentia, Hystricognathi): Evolutionary significance
Fig. 3. Nomenclature for cusps and lophids of lower deciduous teeth (dp4) of the Erethizontidae. A. Steiromys detentus MLP15−339, left dp4. B. Gen. and sp. nov. MPEF 7592b, right dp4. Scale bars 1 mm. Below each photomicrographs (A1, B1), enlarged interpretive drawings (A2, B2) are shown.
Fig. 5 in Lower deciduous tooth homologies in Erethizontidae (Rodentia, Hystricognathi): Evolutionary significance
Fig. 5. Lower deciduous teeth (dp4) of: A. Baluchimys ganeshapher (left dp4). B. Phiomys andrewsi (right dp4). C. Gaudeamus aegyptius (right dp4). Afrom Flynn et al. (1986: fig. 17J); B, C from Wood (1968: figs. 1G, 15E).
Fig. 1 in Lower deciduous tooth homologies in Erethizontidae (Rodentia, Hystricognathi): Evolutionary significance
Fig. 1. Lophid homologies for lower deciduous teeth (dp4) of "caviomorphs" according to Patterson and Wood (1982). The arrow points in the direction of the change from tetralophodonty (A) towards pentalophodonty (B). All drawn as if from the right side.
Fig. 4 in Lower deciduous tooth homologies in Erethizontidae (Rodentia, Hystricognathi): Evolutionary significance
Fig. 4. Lower deciduous teeth (dp4) of Erethizontidae. A. Steiromys detentus MLP15−293, right dp4. B. Eosteiromys? sp. nov. MPEF 5090a, left dp4. C. Hypsosteiromys nectus MACNA 52−177 (type specimen), right dp4. D. Eosteiromys homogenidens MLP 85−VII−3−33f, right dp4. E. Eosteiromys homogenidens MNHN col. 99a, left dp4. F. Eosteiromys? sp. nov. MPEF 5811d, right dp4. Not to scale.
Fig. 8 in Lower deciduous tooth homologies in Erethizontidae (Rodentia, Hystricognathi): Evolutionary significance
Fig. 8. Lower deciduous tooth of Branisamys luribayensis (GN014, type of Villarroelomys bolivianus), from Patterson and Wood (1982), showing the homologiesproposedinthisstudy(A),andbyPattersonandWood(1982)(B).
Fig.7 in Lower deciduous tooth homologies in Erethizontidae (Rodentia, Hystricognathi): Evolutionary significance
Fig.7.Lowerdeciduousteeth(dp4)of"caviomorphs". A, B. Protacaremys; MLP 85−VII−131 (right dp4) (A); MLP 85−VII−3−128 (right dp4) (B). C. Acarechimys MLP82−XII−1−6 (left dp4), D, E. Sciamys; MLP82−V−2−33 (left dp4) (D); MLP 15−197 (left dp4) (E). F. Protadelphomys MPEF 5050 (left dp4). Not to scale.
Fig. 2 in Lower deciduous tooth homologies in Erethizontidae (Rodentia, Hystricognathi): Evolutionary significance
Fig. 2. Schematic drawings of lower deciduous teeth of selected "caviomorphs" taken from Patterson and Wood (1982). A. Erethizon dorsatum MCZ no. 51367. B. Prospaniomys priscus AMNH no 29697. C. Erethizon dorsatum MCZ no. B 7752. D. Protacaremys prior AMNH 29707. E. Protacaremys prior FMNHP13295. F. Protacaremys prior AMNH29692.
Figure S26 in New insights into the systematics of Entomobryoidea (Collembola: Entomobryomorpha): first instar chaetotaxy, homology and classification
Figure S26. Phylogeny of Entomobryoidea using maximum likelihood with both the outgroup and the unstable species excluded. Bootstrap values greater than 50 are shown on the nodes.
Figure S25 in New insights into the systematics of Entomobryoidea (Collembola: Entomobryomorpha): first instar chaetotaxy, homology and classification
Figure S25. Phylogeny of Entomobryoidea using maximum likelihood with the unstable species excluded. Bootstrap values greater than 50 are shown on the nodes.
Figure S24 in New insights into the systematics of Entomobryoidea (Collembola: Entomobryomorpha): first instar chaetotaxy, homology and classification
Figure S24. Phylogeny of Entomobryoidea using maximum likelihood with the outgroup species excluded. Bootstrap values greater than 50 are shown on the nodes.
Figure S23 in New insights into the systematics of Entomobryoidea (Collembola: Entomobryomorpha): first instar chaetotaxy, homology and classification
Figure S23. Phylogeny of Entomobryoidea using maximum likelihood with all 38 species included. Bootstrap values greater than 50 are shown on the nodes.
Figure S21 in New insights into the systematics of Entomobryoidea (Collembola: Entomobryomorpha): first instar chaetotaxy, homology and classification
Figure S21. Consensus tree of Entomobryoidea using Bayesian inference with the outgroup species excluded. Posterior probability values greater than 0.95 are shown on the nodes.
Figure S18 in New insights into the systematics of Entomobryoidea (Collembola: Entomobryomorpha): first instar chaetotaxy, homology and classification
Figure S18. Development of dorsal chaetotaxy of Abd. V. A. Orchesella cincta (subadult, Orcheselllinae). B. Orchesellides boraoi (juvenile, Orchesellinae). C. Willowsia japonica (2nd instar, Entomobryinae). D. Americabrya arida (adult, Entomobryinae). E. Janetschekbrya himalica (2nd instar, Entomobryinae). F. Homidia sp. (2nd instar, Entomobryinae).
Figure S16 in New insights into the systematics of Entomobryoidea (Collembola: Entomobryomorpha): first instar chaetotaxy, homology and classification
Figure S16. Development of dorsal chaetotaxy of Abd. IV (2nd instar). A. Seira dowlingi (Seirinae). B. Entomobryoides myrmecophila (Entomobryinae). C. Lepidocyrtus curvicollis (Lepidocyrtinae). D. Microfalcula sp. (Salininae).
Figure S15 in New insights into the systematics of Entomobryoidea (Collembola: Entomobryomorpha): first instar chaetotaxy, homology and classification
Figure S15. Development of dorsal chaetotaxy of Abd. IV in Entomobryinae (2nd instar). A. Homidia sp. B. Willowsia japonica. C. Willowsia cassagnaui. D. Janetschekbrya himalica.
Figure S10 in New insights into the systematics of Entomobryoidea (Collembola: Entomobryomorpha): first instar chaetotaxy, homology and classification
Figure S10. Development of dorsal chaetotaxy of Abd. III in Entomobryinae. A–D. Entomobrya nivalis. A. 2nd instar. B. 3rd instar. C. 4th instar. D. Adult. E–G. Entomobrya sp. E. 3rd instar. F. 4th instar. G. Adult.
Figure S9 in New insights into the systematics of Entomobryoidea (Collembola: Entomobryomorpha): first instar chaetotaxy, homology and classification
Figure S9. Development of dorsal chaetotaxy of Abd. II. A. Orchesella cincta (subadult, Orcheselllinae, external chaetae not represented). B. Orchesellides boraoi (juvenile, Orchesellinae). C. Entomobrya huangi (2nd instar, Entomobryinae). D. Willowsia japonica (2nd instar, Entomobryinae). E. Microfalcula sp. (2nd instar, Salininae).
Figure S11 in New insights into the systematics of Entomobryoidea (Collembola: Entomobryomorpha): first instar chaetotaxy, homology and classification
Figure S11. Development of dorsal chaetotaxy of Abd. III. A. Orchesellides boraoi (juvenile, Orchesellinae). B‒C, Entomobrya huangi (Entomobryinae). B. 2nd instar. C. adult. D. Willowsia japonica (2nd instar, Entomobryinae). E. Microfalcula sp. (2nd instar, Salininae).
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Allen Brain Atlas
Allen Brain Atlas is an Allen Institute collection of brain map atlases, datasets, APIs, and analysis tools covering mouse, human, and non-human primate brain resources.
Annotated Behaviour and Observability Dataset (ABODe)
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DANDI Archive for NWB datasets
DANDI is a BRAIN Initiative archive for publishing and sharing neurophysiology data, including electrophysiology, optophysiology, and behavioral data packaged as NWB and related standards.
International Brain Laboratory public data
The International Brain Laboratory public data releases expose standardized mouse decision-making experiments, including Neuropixels recordings, widefield calcium imaging, behavior, and session metadata accessed through the ONE API.
OpenNeuro
OpenNeuro is a free, open platform for sharing neuroimaging datasets, with public search, dataset pages, and download paths for web, S3, DataLad, and the OpenNeuro CLI.