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FIG. 6 in The Maragheh bovids (Mammalia, Artiodactyla): systematic revision and biostratigraphiczoogeographic interpretation
FIG. 6. — Demecquenemia rodleri (Pilgrim & Hopwood, 1928) n. comb. frontlet (MNHN.F.MAR1030) from Maragheh in caudal (A), lateral (B) and frontal (C) views. Scale bar: 5 cm.
FIG. 5 in The Maragheh bovids (Mammalia, Artiodactyla): systematic revision and biostratigraphiczoogeographic interpretation
FIG. 5. — Gazella cf. ancyrensis Tekkaya, 1973 cranium (MCW80) from Maragheh in lateral (A), dorsal (B) and ventral (C) views. Scale bar: 5 cm.
FIG. 2 in A late Miocene leaf assemblage from Vrysses, western Crete, Greece, and its paleoenvironmental and paleoclimatic interpretation
FIG. 2. — Photographs of fossil leaves from the Vrysses outcrops (western Crete):A, B, Pinus sp., needles nos. 32.1.2.168 and 32.1.2.48; C, D, Tetraclinis sp., twig fragments nos. 32.1.2.126 and 32.1.2.141; E, Daphnogene polymorpha (A.Braun) Ettingsh., no. 32.1.2.20; F, cf. "Parrotia" pristina (Ettingsh.) Stur, no. 32.1.3.5; G, cf. Juglans acuminata Braun ex Unger, no. 32.1.3.1; H-K, Quercus mediterranea Unger, nos. 32.1.2.24, 32.1.2.155, 32.1.3.2 and 32.1.2.79. Scale bars: 1 cm.
FIG. 5 in A late Miocene leaf assemblage from Vrysses, western Crete, Greece, and its paleoenvironmental and paleoclimatic interpretation
FIG. 5. — Drawings of selected fossil leaves from Vrysses (western Crete): A, Dicotylophyllum sp. 12, no. 32.1.2.42; B, N, Dicotylophyllum sp. 5, nos. 32.1.3.4 and 32.1.2.34; C, Dicotylophyllum sp. 10, no. 32.1.2.4; D, Daphnogene polymorpha (A.Braun) Ettingsh., no. 32.1.2.26; E, Dicotylophyllum sp. 11, no. 32.1.2.98; F, cf. Juglans acuminata Braun ex Unger, no. 32.1.3.1; G, S, Rosaceae gen. et sp. indet., nos. 32.1.2.41 and 32.1.2.8; H, Dicotylophyllum sp. 2, no. 32.1.2.92; I, Dicotylophyllum sp. 6, no. 32.1.2.107; J, Quercus mediterranea Unger, no. 32.1.2.147; K, Acer sp., no. 32.1.2.56; L, P, R, Acer pseudomonspessulanum Unger, nos. 32.1.3.9, 32.1.2.37 and 32.1.2.31; M, Buxus pliocenica Saporta & Marion, no. 32.1.2.140; O, Dicotylophyllum sp. 4, no. 32.1.2.144; Q, Quercus sp., no. 32.1.2.95; T, Dicotylophyllum sp. 7, no. 32.1.2.44. Scale bar: 1 cm.
FIG. 3 in A late Miocene leaf assemblage from Vrysses, western Crete, Greece, and its paleoenvironmental and paleoclimatic interpretation
FIG. 3. — Photographs of fossil leaves from the Vrysses outcrops (western Crete): A, Quercus sp., no. 32.1.2.142; B, Ulmaceae gen. et sp. indet., no. 32.1.2.70; C, cf. Salix sp., no. 32.1.2.39; D, Populus tremula L., foss., no. 32.1.3.7; E, Buxus pliocenica Saporta & Marion, no. 32.1.2.140; F, Rosaceae gen. et sp. indet., no. 32.1.2.55; G, Fabaceae type 1, no. 32.1.2.161; H, Fabaceae type 2, no. 32.1.2.78; I-L, Acer pseudomonspessulanum Unger, nos. 32.1.2.61, 32.1.3.8, 32.1.2.46 and 32.1.2.67; M, Acer sp., no. 32.1.2.12; N-P, cf. Ziziphus ziziphoides (Unger) Weyland, nos. 32.1.2.3, 32.1.2.180 and 32.1.2.5. Scale bars: 1 cm.
FIG. 4 in A late Miocene leaf assemblage from Vrysses, western Crete, Greece, and its paleoenvironmental and paleoclimatic interpretation
FIG. 4. — Photographs of fossil leaves identified in Vrysses outcrops (western Crete):A, Dicotylophyllum sp. 1, no.32.1.2.1;B, Dicotylophyllum sp. 2, no. 32.1.2.92; C, Dicotylophyllum sp. 3, no. 32.1.2.16; D, Dicotylophyllum sp. 4, no. 32.1.2.33; E, Dicotylophyllum sp. 5, no. 32.1.3.6; F, Dicotylophyllum sp. 6, no. 32.1.2.9; G, Dicotylophyllum sp. 8, no. 32.1.2.223; H, Dicotylophyllum sp. 9, no. 32.1.2.30; I, Dicotylophyllum sp. 10, no. 32.1.2.93; J, Dicotylophyllum sp. 11, no. 32.1.2.159; K, Poaceae/Cyperaceae type 1, no. 32.1.2.191; L, Poaceae/ Cyperaceae type 2, no. 32.1.2.54. Scale bars: 1 cm.
Fig. 33 in The Chiropteran Premaxilla: A Reanalysis of Morphological Variation and Its Phylogenetic Interpretation
Fig. 33. Mapping of the third premaxillary character, palatine process of the premaxilla, onto the DNA tree of Teeling et al. (2005). See the text for definition of character states.
Fig. 35 in The Chiropteran Premaxilla: A Reanalysis of Morphological Variation and Its Phylogenetic Interpretation
Fig. 35. Strict consensus of 36 trees under implied weights based on premaxillary characters of this study, unconstrained search excluding Nyctimene and the Eocene fossils Icaronycteris, Palaeochiropteryx, Archaeonycteris, and Hassianycteris. Indicated with (*) are additional nodes recovered with respect to a corresponding analysis of equal weights of the same data matrix.
Fig. 34 in The Chiropteran Premaxilla: A Reanalysis of Morphological Variation and Its Phylogenetic Interpretation
Fig. 34. Strict consensus of 810 optimal trees under implied weights based on premaxillary characters of this study (A), unconstrained search excluding Nyctimene; and strict consensus of 440 optimal trees, constrained search (constrained groups marked ''C'') under implied weights (B). Indicated with (*) are additional nodes recovered with respect to a corresponding analsysis of equal weights of the same data matrix.
Fig. 32 in The Chiropteran Premaxilla: A Reanalysis of Morphological Variation and Its Phylogenetic Interpretation
Fig. 32. Mapping of the second premaxillary character, palatine process of the premaxilla, onto the morphology tree of Gunnell and Simmons (2005). See the text for definition of character states.
Fig. 31 in The Chiropteran Premaxilla: A Reanalysis of Morphological Variation and Its Phylogenetic Interpretation
Fig. 31. Mapping of the second premaxillary character, nasal process of the premaxilla, onto the DNA tree of Teeling et al. (2005). See the text for definition of character states. If unordered, nodes marked * are ambiguous.
Fig. 29 in The Chiropteran Premaxilla: A Reanalysis of Morphological Variation and Its Phylogenetic Interpretation
Fig. 29. Mapping of the first premaxillary character, body of the premaxilla (ordered) onto the DNA tree of Teeling et al. (2005). See the text for definition of character states. If the character is unordered, nodes marked ' are assigned state 2.
Fig. 28 in The Chiropteran Premaxilla: A Reanalysis of Morphological Variation and Its Phylogenetic Interpretation
Fig. 28. Mapping of the first premaxillary character, body of the premaxilla, onto the morphology tree of Gunnell and Simmons (2005). See the text for definition of character states. If the character is unordered, nodes marked * become umbiguous and nodes marked ' are assigned state 0.
Fig. 30 in The Chiropteran Premaxilla: A Reanalysis of Morphological Variation and Its Phylogenetic Interpretation
Fig. 30. Mapping of the second premaxillary character, nasal process of the premaxilla, onto the morphology tree of Gunnell and Simmons (2005). See the text for definition of character states. If unordered, the node marked * is ambiguous.
Fig. 26. Eumops perotis AMNH 248390 in The Chiropteran Premaxilla: A Reanalysis of Morphological Variation and Its Phylogenetic Interpretation
Fig. 26. Eumops perotis AMNH 248390 (A), Cheiromeles torquatus AMNH 103922 (B), and Tadarida brasiliensis AMNH 219336 (C), ventral
Fig. 27 in The Chiropteran Premaxilla: A Reanalysis of Morphological Variation and Its Phylogenetic Interpretation
Fig. 27. Icaronycteris sp. AMNH 125000, ventral view of palate. Scale 5 1 mm. Abbreviations: C upper canine; I1 first upper incisor; I2 second upper incisor; ifo incisive foramen; ppmx palatine process of premaxilla.
Fig. 23. Natalus stramineus AMNH 206695 in The Chiropteran Premaxilla: A Reanalysis of Morphological Variation and Its Phylogenetic Interpretation
Fig. 23. Natalus stramineus AMNH 206695, digital rendering constructed from CT images, lateral view of the skull. The thinness of the premaxillary bone makes visible a large precanine sinus indicated with (*). Scale 5 5 mm.
Fig. 19. Anoura geoffroyi AMNH 263192 in The Chiropteran Premaxilla: A Reanalysis of Morphological Variation and Its Phylogenetic Interpretation
Fig. 19. Anoura geoffroyi AMNH 263192 (A) and Choeroniscus minor AMNH 267948 (B), ventral view of the anterior palate showing the possible homology of the accessory medial foramen and the wedge-shaped gap caused by reduction of insicsors and the concomitant weakening of the premaxillary body. Scale 5 1 mm. Abbreviations: afo accessory medial foramen (parentheses indicates presumed homology); C upper canine; I1 first upper incisor; I2 second upper incisor; ifo incisive foramen; mfpp medial flange of the palatine process of the premaxilla.
Fig. 24. Lasiurus intermedius AMNH 253710 in The Chiropteran Premaxilla: A Reanalysis of Morphological Variation and Its Phylogenetic Interpretation
Fig. 24. Lasiurus intermedius AMNH 253710, line drawing of the dorsal view of the rostrum. Scale 5 1 mm. Abbreviations: bp body of premaxilla; fr frontal; if incisive fissure; mx maxilla; mxisu maxilloincisive suture; na nasal; naisu nasoincisive suture.
Fig. 22. Myzopoda aurita AMNH 257130 in The Chiropteran Premaxilla: A Reanalysis of Morphological Variation and Its Phylogenetic Interpretation
Fig. 22. Myzopoda aurita AMNH 257130, rostrodorsal (A) and caudoventral (B) view of the rostrum showing the wedge-shaped gap between the incisive foramina. Scale 5 1 mm. Abbreviations: C upper canine; I1 first upper incisor; I2 second upper incisor; ifo incisive foramen; v vomer.
ScienceDex guides
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These curated guides explain access requirements, typical timelines, costs, and reuse considerations for widely used research datasets.
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)
ABODe is a University of Edinburgh DataShare dataset for behavior classification in group-housed mice using home-cage video, identities, bounding boxes, ground-plate positions, and annotator labels.
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.