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Fig. 2 in Comparative cranial osteology of subadult eucentrosauran ceratopsid dinosaurs from the Two Medicine Formation, Montana, indicates sequence of ornamentation development and complex supraorbital ontogenetic change
Fig. 2. Right lateral views of nasal horncores of Einiosaurus procurvicornis Sampson, 1995, MOR 456 8-8-87-1 (A) and eucentrosauran (Einiosaurus procurvicornis or Achelousaurus horneri Sampson, 1995), MOR 591 (B, mirrored), from the Campanian Two Medicine Formation, Montana, USA.
Fig. 1 in Comparative cranial osteology of subadult eucentrosauran ceratopsid dinosaurs from the Two Medicine Formation, Montana, indicates sequence of ornamentation development and complex supraorbital ontogenetic change
Fig. 1. Lateral views of articulated crania of subadult eucentrosaurans from the Campanian Two Medicine Formation, Montana, USA. A. Einiosaurus procurvicornis Sampson, 1995, MOR 456 8-8-87-1. B. Eucentrosauran (Einiosaurus procurvicornis or Achelousaurus horneri Sampson, 1995), MOR 591. Photographs (A1 and B1), osteological line drawings (A2, B2). Face of MOR 591 mirrored, with parietosquamosal frill superimposed. The contact outlines between the postorbital, jugal, and squamosal in A2 are estimated due to lack of externally visible sutures and may appear different from MOR 591 due to some breaks and gaps. P4–P7, parietal processes.
Figure 6 in New material of Gumardee pascuali Flannery et al., 1983 (Marsupialia: Macropodiformes) and two new species from the Riversleigh World Heritage Area, Queensland, Australia
Figure 6. Gumardee springae sp. nov., paratype QM F31549, right dentary with i1, p3, m1-4: A, buccal, B, lingual, and C, occlusal (stereopair) views; paratype QM F19872, left dentary with p3, m1-4: D, buccal, E, lingual, and F, occlusal (stereopair) views; paratype QM F19606, right juvenile dentary with p2, dp3, p3 in crypt, m1-2: G, buccal, H, lingual, and I, occlusal (stereopair) views. Scale bar equals 10 mm.
Figure 4 in New material of Gumardee pascuali Flannery et al., 1983 (Marsupialia: Macropodiformes) and two new species from the Riversleigh World Heritage Area, Queensland, Australia
Figure 4. Gumardee springae sp. nov., holotype QM F52816, partial juvenile skull with left loose P2, dP3, left and right P3 in crypt, M1-3 and associated left maxilla with dP3, P3 in crypt, M1-3: A, dorsal, and B, ventral views. Scale bar equals 10 mm.
Figure 3 in New material of Gumardee pascuali Flannery et al., 1983 (Marsupialia: Macropodiformes) and two new species from the Riversleigh World Heritage Area, Queensland, Australia
Figure 3. Gumardee richi sp. nov., paratype QM F24723, left juvenile dentary with broken i1, p2, dp3, m1, m3 in crypt: A, buccal, B, lingual, and C, occlusal (stereopair) views; paratype QM F36313, partial juvenile right dentary with m1-2: D, buccal, E, lingual, and F, occlusal (stereopair) views. Scale bar equals 10 mm.
Figure 2 in New material of Gumardee pascuali Flannery et al., 1983 (Marsupialia: Macropodiformes) and two new species from the Riversleigh World Heritage Area, Queensland, Australia
Figure 2. Gumardee richi sp. nov., holotype QM F57631, partial left juvenile maxilla with P3 in crypt, dP2-3 and M1-2: A, buccal, B, lingual, and C, occlusal (stereopair) views; paratype QM F57632, left maxilla with M1-4: D, buccal, E, lingual, and F, occlusal (stereopair) views. Scale bar equals 10 mm.
Figure 1 in New material of Gumardee pascuali Flannery et al., 1983 (Marsupialia: Macropodiformes) and two new species from the Riversleigh World Heritage Area, Queensland, Australia
Figure 1. Gumardee pascuali, holotype QM F10646, right maxilla with P3, M1-4: A, buccal, B, lingual, and C, occlusal (stereopair) views; QM F30421, right juvenile maxilla with P2, dP3, P3 removed from its crypt, M1: D, buccal, E, lingual, and F, occlusal (stereopair) views; QM F45107, right p3: G, buccal, H, lingual, and I, occlusal (stereopair) views; QM F12422, left dentary with m1-4: J, buccal, K, lingual, and L, occlusal (stereopair) views. Scale bar equals 10 mm.
Figure 5 in New material of Gumardee pascuali Flannery et al., 1983 (Marsupialia: Macropodiformes) and two new species from the Riversleigh World Heritage Area, Queensland, Australia
Figure 5. Gumardee springae sp. nov., paratype QM F57557, partial juvenile skull with left and right P2, dP3, M1-2: A, dorsal view of neurocranium; B, ventral view of basioccipital, occipital condyle and supraoccipital; C, buccal, D, lingual, and E, occlusal (stereopair) views of palate; paratype QM F19874, right M4: F, buccal, G, lingual, and H, occlusal (stereopair) views; QM F19633, left maxilla with P3, M1-4: I, occlusal (stereopair) view. Scale bar equals 10 mm.
Figure 7 in New material of Gumardee pascuali Flannery et al., 1983 (Marsupialia: Macropodiformes) and two new species from the Riversleigh World Heritage Area, Queensland, Australia
Figure 7. Strict consensus of 860 most parsimonious trees (tree length = 590; consistency index excluding uninformative characters =0.3492; retention index =0.7616) from maximum parsimony analysis of our matrix containing 119 characters, assessing the phylogenetic relationship of Gumardee species. Numbers above branches represent bootstrap values (1000 replicates); numbers below branches represent decay indices. Fossil taxa are indicated by †. Species of Gumardee are highlighted in bold.
Figure 3 in The Paleocene cephalopod fauna from Pebble Point, Victoria (Australia) - fulcrum between two Eras
Figure 3. Aturoidea distans from Pebble Point, Victoria. Upper: small specimen NMV P 302005, showing the sutural morphology at shell diameter of 30-40 mm. Scale bar = 10 mm. Bottom: large specimen (not curated) in the Tate Museum, University of Adelaide, also from Pebble Point. One of the major differences compared to Aturia is the distance between septa. In both small and large (late stage) phragmocones, there is no contact between lobes. Scale bar = 5 mm.
Figure 4. Large Aturoidea distans from Pebble Point, NMV P326476 in The Paleocene cephalopod fauna from Pebble Point, Victoria (Australia) - fulcrum between two Eras
Figure 4. Large Aturoidea distans from Pebble Point, NMV P326476. Note also the corals growing on the shell, which could not have grown in this fashion during life of the nautilid. The corals are assumed here to have attached on the shell after the death, transport, and then final resting of the nautilid on a seabed shallower than the nautilid's life and growth habitat. However, these could not have grown in a high sedimentation rate environment. Scale bar = 10 mm.
Figure 5 in The Paleocene cephalopod fauna from Pebble Point, Victoria (Australia) - fulcrum between two Eras
Figure 5. Eutrephoceras victorianum, Pebble Point Formation, NMV P301870. Note the very simple septal suture outlined in black on upper shell. Scale bar = 10 mm.
Figure 2 in The Paleocene cephalopod fauna from Pebble Point, Victoria (Australia) - fulcrum between two Eras
Figure 2. Results of oxygen isotope analyses of shell carbonates. Temperature (°C) is along the Y Axis. The X Axis is septal number, where the first formed septum is 1, and higher numbers pertain to more recently formed septa. PNG= Papua New Guinea.
Figure 8 in The Paleocene cephalopod fauna from Pebble Point, Victoria (Australia) - fulcrum between two Eras
Figure 8. Hypothesized generic level phylogeny of a portion of post-Jurassic nautilids. Eutrephoceras spp predate Nautilus and were not involved in subsequent generic evolution. Nautilus appears in either the Late Jurassic or Early Cretaceous, based on unpublished observations of P. Ward in the British Museum, and gives rise to subsequent genera Cimomia, Hercoglossa, Aturoidea, Aturia, and Deltoidonautilus. Nautilus also gives rise to Allonautilus in either Pliocene or Pleistocene.
Figure 7 in The Paleocene cephalopod fauna from Pebble Point, Victoria (Australia) - fulcrum between two Eras
Figure 7. Comparative sutures of (1) Nautilus praepompilius, (2) N. pompilius, and (3) Aturoidea distans.
Figure 3A–D. A. Hebella costata. Hydrotheca with proximal corrugations. B, C. Diphasia digitalis. B, branched stem. C, stem internode with opposite hydrothecae. D in Some hydroids (Hydrozoa: Hydroidolina) from Dampier, Western Australia: annotated list with description of two new species.
Figure 3A–D. A. Hebella costata. Hydrotheca with proximal corrugations. B, C. Diphasia digitalis. B, branched stem. C, stem internode with opposite hydrothecae. D. Halopteris glutinosa. Hydrocladial athecate and thecate internodes. Scale bar, mm: A, 0.5. B, 1.0. C, D, 0.25.
Figure 5 in A review of giant roughies of the genus Hoplostethus (Beryciformes, Trachichthyidae), with descriptions of two new Australasian species.
Figure 5. Selected proportional measurements relative to standard length for Hoplostethus gigas, H. melanopeza sp. nov. and H. grandperrini sp. nov.
Figure 2A–F in Some hydroids (Hydrozoa: Hydroidolina) from Dampier, Western Australia: annotated list with description of two new species.
Figure 2A–F. Halecium corpulatum sp. nov. A, holotype colony. B, linear series of hydrophores. C, branching of stem. D, dichotomous branching of hydrophores from below a hydrotheca showing basal thickening below hydrotheca. E, male gonotheca. F, hyranth (preserved material). Scale bar, mm: A, 25. B, D, 0.2.C, E, F, 0.5.
Figure 4 in A review of giant roughies of the genus Hoplostethus (Beryciformes, Trachichthyidae), with descriptions of two new Australasian species.
Figure 4. Buccal colouration of Hoplostethus melanopeza sp. nov. NMNZ P.053206, paratype, 273 mm SL, photo by C. Struthers.
Figure 1A–G. A in Some hydroids (Hydrozoa: Hydroidolina) from Dampier, Western Australia: annotated list with description of two new species.
Figure 1A–G. A. Eudendrium racemosum from photograph of whole colony. B. Filellum serratum, regenerated hydrotheca. C, D. Lafoeina amirantensis. C, small hydrotheca and nematotheca on hydrorhiza. D, large hydrotheca. E–G. Halecium?tenellum. E, unbranched stem. F, basally annulated hydrophore. G, hydrotheca with strongly everted rim and desmocytes. Scale bar, mm: A, 20. B, C, E, F, G, 0.2. D. 0.1.
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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)
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.