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Figure 2 in Molecular and otolith shape analyses of Scorpaena spp. in the Turkish seas
Figure 2. Phylogenetic tree based on Neighbour Joining method analysis of COI gene for five Scorpaena species and their haplotypes. Only bootstrap values greater than 50 were shown (1000 replicates). D. brachypterus was used as an outgroup.
Figure 3 in Molecular and otolith shape analyses of Scorpaena spp. in the Turkish seas
Figure 3. Phylogenetic tree based on Neighbour Joining method analysis of COI sequences of Scorpaena species obtained in the present study and found in GenBank and BOLD Systems. Only bootstrap values greater than 50 are shown. D. brachypterus was used as an outgroup.
Figure 3 in Shape variation in head scales of species of the genus Ophiomorus DUMÉRIL & BIBRON, 1839 in Iran, a geometric morphometrics approach
Figure 3. Photos of the species of the genus Ophiomorus in Iran: O. tridactylus (A), O. brevipes (B), O. nuchalis (C), O. persicus (D), O. blanfordii (E), and O. streeti (F).
Figure 1. The genus Ophiomorus currently comprises 12 in Shape variation in head scales of species of the genus Ophiomorus DUMÉRIL & BIBRON, 1839 in Iran, a geometric morphometrics approach
Figure 1. The genus Ophiomorus currently comprises 12 extant species and distribution from southeastern Europe (mainland of Greece) to western India (Camaiti et al., 2019).
Figure 6 in Shape variation in head scales of species of the genus Ophiomorus DUMÉRIL & BIBRON, 1839 in Iran, a geometric morphometrics approach
Figure 6. Above wireframe graph in PC2 and scatter plot resulting from the between-group principal components analysis on specimens of the genus Ophiomorus.
Figure 5 in Shape variation in head scales of species of the genus Ophiomorus DUMÉRIL & BIBRON, 1839 in Iran, a geometric morphometrics approach
Figure 5. Landmarks that were used on the intersection of dorsal head scales in Ophiomorus. For detailed definitions of each landmark see Appendix 2.
Figure 16 in Mathematical interpretation of avian egg shapes
Figure 16. Ovoid curves: a) Hügelschäffer (according to Obradovic et al., 2013); b) Blaschke (according to Köller, 2000); с) Schauberger (according to Coats, 2001).
Figure 15 in Mathematical interpretation of avian egg shapes
Figure 15. Yamamoto oval (а) (according to Yamamoto, 2020); Cartesian oval (b) (according to Köller, 2000); Möller oval (c) (according to Möller, 2009).
Figure 13 in Mathematical interpretation of avian egg shapes
Figure 13. Cone-like ovoids: a) zeta-curve (Stadnicki, 2015); b) Phalacrocorax carbo; c) Anser anser; d) Phalacrocorax pelagicus; e) Grus canadensis; f) Grus grus.
Figure 14 in Mathematical interpretation of avian egg shapes
Figure 14. Cartesian ovals: а) with p = 1, q = 2 and c = 5; b) with p = 1, q = 3 and c = 5 (Beverlin, 2006); с) hyperbolic cone (Kirsh, 2010).
Fig. 10 in Mathematical interpretation of avian egg shapes
Fig. 10. Spher-obtuse аsymmetric pseudo-ovoid: 1, 9, 17) construction of ovoids in the shape matrix; 2, 10, 18) egg profile diagram; bird egg profiles: 3) Accipiter gentilis; 4) Accipiter nisus; 5) Falco vespertinus; 6) Falco tinnunculus; 7) Panurus biarmicus; 8) Asio otus; 11) Milvus milvus; 12) Hieraaetus pennatus; 13) Picus canus; 14) Falco cherrug; 15) Columba oenas; 16) Falco tinnunculus; 19) Dendrocopos major; 20) Cuculus canorus; 21) Sylvia atricapilla; 22) Fringilla coelebs; 23) Crex crex; 24) Phasianus colchicus.
Fig. 9 in Mathematical interpretation of avian egg shapes
Fig. 9. Аsymmetric sphere-rounded pseudo-ovoid: 1, 9, 17) construction of ovoids in the shape matrix; 2, 10, 18) egg profile diagram; bird egg profiles: 3) Egretta alba; 4) Podiceps nigricollis; 5) Porzana parva; 6) Ardea cinerea; 7) Cygnus olor; 8) Podiceps cristatus; 11) Cygnus olor; 12) Casuarius casuarius; 13) Egretta garzetta; 14) Mergus serrator; 15) Egretta alba; 16) Phalacrocorax carbo; 19) Anser anser; 20) Pelecanus crispus; 21) Podiceps grisegena; 22) Cygnus olor; 23) Phalacrocorax carbo; 24) Podiceps cristatus,
Figure 12 in Mathematical interpretation of avian egg shapes
Figure 12. Rounded -drop-shaped asymmetric pseudo-ovoid: 1, 9, 17) construction of ovoids in the matrix of forms; 2, 10, 18) egg profile diagram; bird egg profiles: 3) Oriolus oriolus; 4) Podiceps nigricollis; 5) Remiz pendulinus; 6) Porzana porzana; 7) Procellaria leucomelas; 8) Fulica atra;11) Catharacta maccormicki; 12) Corvus corax; 13) Phalacrocorax pelagicus; 14) Riparia riparia; 15) Larus genei; 16) Alauda arvensis; 19) Platalea leucorodia; 20) Upupa epops; 21) Larus cachinnans; 22) Pica pica; 23) Lunda cirrhata; 24) Gavia arctica.
Fig. 11 in Mathematical interpretation of avian egg shapes
Fig. 11. Asymmetric rounded-typical pseudo-ovoids: 1, 9, 17) construction of ovoids in the shape matrix; 2), 10), 18) egg profile diagram; bird egg profiles: 3) Fringilla coelebs; 4) Tetrastes bonasia; 5) Chloris chloris; 6) Fulica atra; 7) Sturnus vulgaris; 8) Turdus merula; 11) Acrocephalus palustris; 12) Turdus viscivorus; 13) Cuculus canorus; 14) Oriolus oriolus; 15) Luscinia luscinia; 16) Dendrocopos major; 19) Haematopus ostralegus; 20) Remiz pendulinus; 21) Porzana porzana; 22) Anthropoides virgo; 23) Cygnus cygnus;24) Anas strepera.
Figure 4 in Mathematical interpretation of avian egg shapes
Figure 4. Rounded symmetric pseudo-ovoid: 1, 9, 17) construction of ovoids in the shape matrix; 2, 10, 18) egg profile diagram; bird egg profiles: 3) Pygoscelis papua; 4) Struthio camelus; 5) Alcedo atthis; 6) Strix aluco; 7) Hieraaetus pennatus; 8) Aegolius funereus; 11) Pygoscelis antarctica; 12) Merops apiaster; 13) Strix aluco; 14) Ardeola ralloides; 15) Streptopelia decaocto; 16) Asio otus; 19) Bubo bubo; 20) Ciconia ciconia; 21) Columba palumbus; 22) Streptopelia turtur; 23) Anas platyrhynchos; 24) Ixobrychus minutus.
Figure 5 in Mathematical interpretation of avian egg shapes
Figure 5. Obtuse symmetric pseudo-ovoid: 1, 9, 17) construction of ovoids in the shape matrix; 2, 10, 18) egg profile diagram and profiles: 3) Columba livia; 4) Anas platyrhynchos; 5) Egretta alba; 6) Ixobrychus minutus; 7) Columba palumbus; 8) Rhea americana; 11) Otis tarda; 12) Egretta alba; 13) Merops apiaster; 14) Aythya ferina; 15) Caprimulgus europaeus; 16) Anas quеrquedula; 19) Upupa epops; 20) Egretta alba; 21) Anser anser; 22) Egretta garzetta; 23) Ardea cinerea; 24) Ardea cinerea.
Figure 3 in Mathematical interpretation of avian egg shapes
Figure 3. Sphere-like symmetric pseudo-ovoid: 1) plotting of ovoids in the shape matrix; 2) a profile for comparison with real egg shapes; bird egg profiles: 3) Otus scops; 4) O. brucei; 5) Athene noctua; 6) Merops apiaster; 7) M. superciliosus; 8) Alcedo atthis.
Figure 2 in Mathematical interpretation of avian egg shapes
Figure 2. Variability of the polar zones curvature of symmetric pseudo-ovoids: а) short, b) normal, c) long.
Figure 1 in Mathematical interpretation of avian egg shapes
Figure 1. The formation of asymmetric and symmetric (а) pseudo-ovoids; b-с) schemes for measuring the semi-axes: (L – length, D – diameter, rc – cloacal and ri – infundibular radii, ip – interpolar segment, lc - cloacal and li - infundibular semi-axes)
Figure 2 in Ecomorphological patterns and shape indices of otoliths in the Pagellus acarne (Actinopterygii, Sparidae) from the Aegean and Marmara Seas
Figure 2. Explanation of morphometric otolith measurements on the proximal otolith surface of Pagellus acarne.
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.