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Fig. 1 in The oldest representative of a modern deep-sea ophiacanthid brittle-star clade from Jurassic shallow-water coral reef sediments
Fig. 1. Ophiacanthid brittle−star Ophiosternle crinitum (Quenstedt, 1876), GPIT/69/96−24 (holotype), from the Reef debris beds within the Mergelstetten Formation (Hybonoticeras beckeri Zone, Lithacoceras ulmense Subzone), latest Kimmeridgian, Late Jurassic of Buchenbrunnen near Steinenfeld, S−Germany. A. Complete specimen in ventral view. B. Detail of dorsal side showing arm base and distal tip of radial shields. C. Detail of disc in dorsal view. D, E. Detail of disc in ventral view; photograph (D) and explanatory drawing (E).
Fig. 3 in The problematic early Cambrian fossil Tumulduria incomperta represents the detached ventral interarea of a paterinid brachiopod
Fig. 3. Paterinid brachiopod Tumulduria incomperta Missarzhevsky in Rozanov et al, 1969. Dorsal valves. Aldan and Uchur River area, Nochoroicyathus sunnaginicus Zone, Siberia. A. NRM Br141139, sample 1793; A 1, dorsal view; A 2, oblique anterior view; A 3, oblique posterior view; A 4, detail of cardinal area in oblique posterior view; A 5, oblique anterolateral view of internal surface. B. NRM Br141140, sample 1825; B 1, dorsal view; B 2, oblique posterior view. C. NRM Br141141, sample 1832; C 1, dorsal view; C 2, oblique posterior view; C 3, oblique anterior view of internal surface. D. NRM Br141142, sample 1832; D , internal view; D , detail of internal surface with botryoidal structures.
Fig. 1 in The problematic early Cambrian fossil Tumulduria incomperta represents the detached ventral interarea of a paterinid brachiopod
Fig. 1. Paterinid brachiopod Tumulduria incomperta Missarzhevsky in Rozanov et al, 1969. Typical Tumulduria plates with pseudodeltidium and partially preserved lateral flanks representing ventral interarea. Aldan and Uchur River area, Nochoroicyathus sunnaginicus Zone, Siberia. A. NRM Br141128, sample 1825; A 1, view from above; A 2, oblique posterior view. B. NRM Br141129, sample 1825; B 1, view from above; B 2, oblique posterior view. C.NRM Br141130, sample 1825; C 1, view from above; C 2, oblique posterior view. D. NRM Br141131, sample 1825; D 1, view from above; D 2, oblique lateral view. E. NRM Br141132, sample JSP 1990 27/1; E 1, view from above; E 2, oblique posterior view. F. NRM Br141133, sample JSP 1990 27/1; F 1, view from above; F 2, oblique posterior view. G. NRM Br141134, sample JSP 1990 27/1; G 1, view from above; G 2, oblique posterior view. H. NRM Br141135, sample 1825; H , internal view; H , detail of internal surface with botryoidal structures.
Fig. 2 in The problematic early Cambrian fossil Tumulduria incomperta represents the detached ventral interarea of a paterinid brachiopod
Fig. 2. Paterinid brachiopod Tumulduria incomperta Missarzhevsky in Rozanov et al, 1969. Fragmentary valves. Aldan and Uchur River area, Nochoroicyathus sunnaginicus Zone, Siberia. A. NRM Br141136, sample 449, left lateral half of ventral interarea; A1, view from above; A2, oblique posterior view; A3, detail of pseudodeltidium in oblique view. B. NRM Br141137, sample 1832, fragment preserving junction of ventral interarea and ventral shell surface; B1, view from posterior; B2, oblique posterolateral view. C. NRM Br141138, sample 525, fragment of shell surface with fila and nick points.
Fig. 1. Representative Cambrian ctenocystoid echinoderms. A, B in The youngest ctenocystoids from the Upper Ordovician of the United Kingdom and the evolution of the bilateral body plan in echinoderms
Fig. 1. Representative Cambrian ctenocystoid echinoderms. A, B. Ctenocystis utahensis Robison and Sprinkle, 1969 from Cambrian Series 3 of the United States. USNM 163252 in dorsal (A 1) and anterior (A 2) views; USNM 595079 in right lateral view (B). C. Undescribed ctenocystoid (Ctenocystoid gen. et sp. nov 1 in Smith et al. 2013) from Cambrian Series 3 of Morocco. NHMUK EE 15428 in dorsal view. D. Courtessolea moncereti Domínguez Alonso, 2004 from Cambrian Series 3 of France. MNHN F.A45783 in dorsal view. E. Courtessolea sp. from Cambrian Series 3 of Spain. MPZ 2009/1234b in ventral view. F. Undescribed ctenocystoid (Ctenocystoid gen. et sp. nov 2 in Smith et al. 2013) from Cambrian Series 3 of Morocco. NHMUK EE 15317 in ventral view. G, H. Jugoszovia archaeocyathoides Dzik and Orłowski, 1995 from Cambrian Series 3 of Poland. ZPAL Ec1/9 in ventral view (G); ZPAL Ec1/1 in anterior view (H). All specimens are latex casts whitened with ammonium chloride sublimate.
Fig. 4. Representative X in Alleged cnidarian Sphenothallus in the Late Ordovician of Baltica, its mineral composition and microstructure
Fig. 4. Representative X-ray diffraction pattern of Sphenothallus aff. longissimus, Viivikonna Formation, lowermost Sandbian, Kohtla, NE Estonia. Dark gray line indicates modelled apatite pattern fitted to measured pattern. Position of reflections 410 and 004 were used to estimate carbonate ion content in carbonate-fluor apatite structure.
FIGURE 5. Representative Magnoliaceae and Oleaceae from the Citronelle Formation. 1 in New plant fossil records and paleoclimate analyses of the late Pliocene Citronelle Formation flora, U.S. Gulf Coast
FIGURE 5. Representative Magnoliaceae and Oleaceae from the Citronelle Formation. 1. Liriodendron cf. tulipifera partial leaf (UF 19315–062075), scale bar equals 1 cm. 2. Close-up of Figure 5.1 Liriodendron leaf basal portion showing simple agrophic veins at arrows, scale bar equals 5 mm. 3. Magnolia cf. virginiana leaf (UF 19210–062076), scale bar equals 1 cm. 4. Close-up of Figure 5.3 Magnolia leaf showing details of fourth and fifth order veins, scale bar equals 5 mm. 5. Fraxinus sp. fruit (UF 19413–062077), scale bar equals 5 mm.
FIGURE 4. Representative Lauraceae from the Citronelle Formation. 1 in New plant fossil records and paleoclimate analyses of the late Pliocene Citronelle Formation flora, U.S. Gulf Coast
FIGURE 4. Representative Lauraceae from the Citronelle Formation. 1. Lindera sp. leaf (UF 19210–062072), scale bar equals 1 cm. 2. Extant Lindera leaf from USAM herbarium for comparison with Figure 4.1, scale bar equals 1 cm. 3. Persea sp. leaf (UF 19210–062073), scale bar equals 1 cm. 4. Sassafras albidum leaf (UF 19210–062074), scale bar equals 1 cm. 5. Close-up of Figure 4.1 Lindera leaf showing high order venation, scale bar equals 2.5 mm. 6. Close-up of Figure 4.3 Persea leaf showing high order venation, scale bar equals 2.5 mm.
FIGURE 2. Representative Aquifoliaceae through Juglandaceae from the Citronelle Formation. 1 in New plant fossil records and paleoclimate analyses of the late Pliocene Citronelle Formation flora, U.S. Gulf Coast
FIGURE 2. Representative Aquifoliaceae through Juglandaceae from the Citronelle Formation. 1. Ilex sp. leaf (UF 19210–062063), scale bar equals 5 mm. 2. Clethra cf. alnifolia (UF 19210–062064) partial leaf, arrow indicates mucronate tooth apex, scale bar equals 5 mm. 3. Close-up of Figure 2.2 Clethra leaf, note mixed-percurrent tertiaries, scale bar equals 2.5 mm. 4. Extant Clethra alnifolia leaf from USAM herbarium for comparison with Figure 2.2, scale bar equals 5 mm. 5. Gaylussacia sp. leaf (UF 19315–062065), scale bar equals 5 mm. 6. Extant Gaylussacia sp. from USAM herbarium for comparison with Figure 2.5, scale bar equals 5 mm. 7. Vaccinium sp. leaf (UF 19315–062066), scale bar equals 5 mm. 8. Close-up of Vaccinium leaf margin from Figure 2.7 showing teeth, scale bar equals 2.5 mm. 9. Carya fruit (UF 19315 – 062068), scale bar equals 5 mm. 10. Carya sp. catkin with in situ pollen (UF 19315 – 062067), scale bar equals 5 mm. 11. Carya sp. pollen tetrad from specimen in Figure 2.10, scale bar equals 10 µm.
FIGURE 3.1-4 in New representative of the family Panorpodidae (Insecta, Mecoptera) from Eocene Baltic Amber with a key to fossil species of genus Panorpodes
FIGURE 3.1-4. Forewings of fossil representatives of genus Panorpodes: 3.1) Panorpodes brevicauda, 3.2) P. hageni, 3.3) P. gedanensis, 3.4) P. weitschati, modified after Soszyńska-Maj and Krzemiński (2013).
Fig. 3. Representative C in Allopatric chromosomal variation in Nematocharax venustus Weitzman, Menezes & Britski, 1986 (Actinopterygii: Characiformes) based on mapping of repetitive sequences
Fig. 3. Representative C-banded karyotypes of Nematocharax venustus from (a) Almada, Gongogi 1, Gongogi 2, Gongogi 3, Jequitinhonha 1, Jequitinhonha 2 and (b) Upper Contas. Bar = 5 µm.
FIGURE 7. Map showing Condylura fossil bearing localities and a in Condylura (Mammalia, Talpidae) reloaded: New insights about the fossil representatives of the genus
FIGURE 7. Map showing Condylura fossil bearing localities and a possible palaeobiogeographical scenario. The orange striped area represents the present distribution of the extant C. cristata. The orange star represents Condylura sp. (middle Miocene locality of Kalkaman Lake, Kazakhstan). The red square represents cf. Condylura sp. (late Miocene locality of Malheur River, Oregon, USA). The green triangles represent C. kowalskii and C. izabellae (Pliocene Polish localities). The blue circles represent the late Pleistocene-Holocene localities of C. cristata.
FIGURE 4. 1 in Condylura (Mammalia, Talpidae) reloaded: New insights about the fossil representatives of the genus
FIGURE 4. 1, Condylura kowalskii, mandible fragment bearing p1 and p2 in lingual view (MF/1006/4, ISEZ-PAN); from Rzebik-Kowalska (2014, figure 1.3). 2, Line drawing of a left mandible of Condylura cristata in labial view, modified from Laerm et al. (2007).
FIGURE 5 in Condylura (Mammalia, Talpidae) reloaded: New insights about the fossil representatives of the genus
FIGURE 5. Drawings (1-4) and photographs (5-6) of talpid species humeri in caudal view. 1, Yanshuella primaeva, left humerus (IVPP-6455, IVPP), from Storch and Qiu (1983, figure 39b). 2, Yunoscaptor scalprum, left humerus (IVPP-V- 9741.38, IVPP), from Storch and Qiu (1991, figure 48b). 3, Scapanulus oweni, left humerus, from Hutchinson (1968). 4, Wilsonius ripafodiator, left humerus (UO-22366, UO), from Hutchinson (1968, figure 55). 5, Leptoscaptor robustior, right humerus (P35-58.6, NHMA), from Ziegler (2003, figure 3B2). 6, Leptoscaptor bavaricum, left humerus (P10- 610.2, NHMA), from Ziegler (2003, figure 2I).
FIGURE 1. A in Condylura (Mammalia, Talpidae) reloaded: New insights about the fossil representatives of the genus
FIGURE 1. A detail of the star-like appendages from a preserved specimen. Image modified from Catania (2012b).
FIGURE 6. 1, Talpidae phylogeny resulting from a in Condylura (Mammalia, Talpidae) reloaded: New insights about the fossil representatives of the genus
FIGURE 6. 1, Talpidae phylogeny resulting from a parsimony analysis based on 157 discrete morphological characters, modified from Sánchez-Villagra et al. (2006, figure 1). 2, Unconstrained Talpidae phylogeny based on a parsimony analysis (DELTRAN optimization) based on 176 discrete morphological characters, modified from Schwermann and Thompson (2015, figure 16A).
FIGURE 3 in Condylura (Mammalia, Talpidae) reloaded: New insights about the fossil representatives of the genus
FIGURE 3. Drawings (1-5, 8) and photographs (6 and 7) showing fossil and extant representatives of genus Condylura. 1 and 2, Condylura sp., left humerus in caudal (1) and frontal (2) views, modified from Lychev (1963). 3-5, cf. Condylura sp., right humerus (YPM 20699, YPM) in caudal (3) and lateral (4) views and close-up of the greater tuberosity in medial view (5), modified from Hutchinson (1984, figure 1B). 6 and 7, Condylura kowalskii, left humerus (MF/ 1006/16, ISEZ-PAN) in frontal (6) and caudal (7) views, modified from Rzebik-Kowalska (2014, figure 2.1, 2.2). 8, Condylura cristata, right humerus in caudal view, modified from Hutchinson (1984, figure 1A). Scale bars represent 1 mm.
FIGURE 4 in Population structuration and chromosomal features homogeneity in Parodon nasus (Characiformes: Parodontidae): A comparison between Lower and Upper Paraná River representatives
FIGURE 4 | Molecular data of Parodon nasus from La Plata basin. A. Haplotype network showing the relationship among the sequences. B. Structural population inference by BAPs (K = 2) for the four populations showing the division between Upper and Lower Paraná River systems; C. Bayesian inference tree showing the phylogenetic relationship of the sequences (numbers on the branches correspond to posterior probability; numbers in parentheses correspond to specimen voucher ID).
FIGURE 3 in Population structuration and chromosomal features homogeneity in Parodon nasus (Characiformes: Parodontidae): A comparison between Lower and Upper Paraná River representatives
FIGURE 3 | Karyotypes of the four populations of Parodon nasus submitted to fluorescence in situ hybridization using 18S rDNA (green signal) and 5S rDNA (red signal) probes. Chromosomes with signals for the pPh2004 probe were highlighted in boxes. A. Cuiabá River; B. Mogi-Guaçu River; C. Passa Cinco River; D. Paiol Grande stream. Scale bar = 10µm.
FIGURE 1 in Population structuration and chromosomal features homogeneity in Parodon nasus (Characiformes: Parodontidae): A comparison between Lower and Upper Paraná River representatives
FIGURE 1 | A. Adult specimen of Parodon nasus. B. Partial map of the South America showing the La Plata basin, the principal rivers of the basin, and the collection sites of the P. nasus species analyzed.
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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.