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Figure 1 in A new basal ornithopod dinosaur (Frenchman Formation, Saskatchewan, Canada), and implications for late Maastrichtian ornithischian diversity in North America
Figure 1. Diagrams of the skeletons of relatively complete articulated Thescelosaurus specimens (A–I) and Parksosaurus (J), showing their comparative size and degree of completeness. Bones present in each specimen are represented in white. A, LACM 33542; B, SDSM 7210; C, MOR 979; D, NCSM 15728; E, USNM 7757; F, USNM 7758; G, CMN 8537; H, LACM 33543; I, RSM P 1225.1; J, ROM 804. Skeletons are scaled isometrically based on femur and tibia length, when available. Skeletons lacking both tibiae and femora were scaled using the following elements: anteroposterior thickness of orbit for SDSM 7210; length of the dentary for LACM 33543; and length of the humerus for USNM 7758. Proportions for specimens of Thescelosaurus represent those of USNM 7757, and do not illustrate proportional changes that would be evident because of allometric scaling. Scale equals 1 m. Modified from Boyd et al. 2009.
Figure 8 in A new basal ornithopod dinosaur (Frenchman Formation, Saskatchewan, Canada), and implications for late Maastrichtian ornithischian diversity in North America
Figure 8. Right pterygoid of the holotype of Thescelosaurus assiniboiensis sp. nov., RSM P 1225.1, in medial (A), lateral (B), dorsal (C), and ventral (D) views. See list in text for an explanation of anatomical abbreviations. Primes indicate illustrations of photographed elements. Dashed lines indicate extrapolated margins of the element. Hatched areas represent incomplete bone surface.
Figure 9 in A new basal ornithopod dinosaur (Frenchman Formation, Saskatchewan, Canada), and implications for late Maastrichtian ornithischian diversity in North America
Figure 9. Palatines of the holotype of Thescelosaurus assiniboiensis sp. nov., RSM P 1225.1, left palatine in (A) dorsal and (B) ventral view; right palatine in (C) dorsal and (D) ventral view. Primes indicate illustrations of photographed elements. Dashed lines indicate extrapolated margins of the element. Hatched areas represent incomplete bone surface.
Figure 12 in Anatomy of the basal titanosaur (Dinosauria, Sauropoda) Andesaurus delgadoi from the mid-Cretaceous (Albian-early Cenomanian) Río Limay Formation, Neuquén Province, Argentina: implications for titanosaur systematics
Figure 12. Maps showing the distribution of titanosauriforms: (A) Late Jurassic, (B) Early Cretaceous, and (C) Late Cretaceous. Key: grey circles, non-titanosaur titanosauriforms; black triangles, titanosaurs; white hexagons, putative titanosaurs. See Table 7 for details. Images were produced in ArcGIS 9.2, and palaeomap reconstructions are from Scotese (2001) (note that the palaeomaps consist of the reconstructed positions of present-day continental coastlines). Modern day co-ordinates for titanosauriform taxa were converted to palaeolatitudes and palaeolongitudes (for the relevant time slices) using PointTracker (Scotese 2004).
Figure 10 in Anatomy of the basal titanosaur (Dinosauria, Sauropoda) Andesaurus delgadoi from the mid-Cretaceous (Albian-early Cenomanian) Río Limay Formation, Neuquén Province, Argentina: implications for titanosaur systematics
Figure 10. Andesaurus delgadoi. Photographs of metacarpals: right metacarpal I (Mc I) in (A) dorsal, (B) distal, and (C) ventral view; left metacarpal V (Mc V) in (D) dorsal, (E) ventral, and (F) proximal view. In each of the images in dorsal and ventral view, the proximal end of the metacarpal is at the bottom of the image. In the distal and proximal-end images, the dorsal surface is at the top of the image. Scale bar: 100 mm.
Figure 11 in Anatomy of the basal titanosaur (Dinosauria, Sauropoda) Andesaurus delgadoi from the mid-Cretaceous (Albian-early Cenomanian) Río Limay Formation, Neuquén Province, Argentina: implications for titanosaur systematics
Figure 11. Andesaurus delgadoi: photographs of left pubis and left ischium in lateral view. Scale bar: 400 mm.
Figure 8 in Anatomy of the basal titanosaur (Dinosauria, Sauropoda) Andesaurus delgadoi from the mid-Cretaceous (Albian-early Cenomanian) Río Limay Formation, Neuquén Province, Argentina: implications for titanosaur systematics
Figure 8. Andesaurus delgadoi. Photographs of chevrons: (A) chevron 1 (C1) in anterior and right lateral view; (B) chevron 2 (C2) in anterior and left lateral view; (C) chevron 3 (C3) in anterior and left lateral view; (D) chevron 4 (C4) in posterior and left lateral view. Scale bar: 200 mm.
Figure 7 in Anatomy of the basal titanosaur (Dinosauria, Sauropoda) Andesaurus delgadoi from the mid-Cretaceous (Albian-early Cenomanian) Río Limay Formation, Neuquén Province, Argentina: implications for titanosaur systematics
Figure 7. Andesaurus delgadoi. Photographs of middle-posterior caudal vertebrae: (A) Cd23 in left lateral view; (B) Cd24 in left lateral view; Cd25 in (C) anterior, (D) right lateral, and (E) posterior view. Scale bar: 100 mm.
Figure 6 in Anatomy of the basal titanosaur (Dinosauria, Sauropoda) Andesaurus delgadoi from the mid-Cretaceous (Albian-early Cenomanian) Río Limay Formation, Neuquén Province, Argentina: implications for titanosaur systematics
Figure 6. Andesaurus delgadoi. Photographs of anterior–middle caudal vertebrae: (A) Cd10 and Cd11 in left lateral view; (B) Cd12 in left lateral view; (C) Cd13 in left lateral view; (D) Cd15 in left lateral view; (E) Cd18 in left lateral view; (F) Cd19 in left lateral view; Cd20 in (G) anterior, (H) left lateral, and (I) posterior view. Abbreviations: cb, circular bulge; nc ridge, neurocentral ridge. Scale bar: 100 mm.
Figure 5 in Anatomy of the basal titanosaur (Dinosauria, Sauropoda) Andesaurus delgadoi from the mid-Cretaceous (Albian-early Cenomanian) Río Limay Formation, Neuquén Province, Argentina: implications for titanosaur systematics
Figure 5. Andesaurus delgadoi. Photographs of caudal vertebra 8 (Cd8) in (A) anterior, (B) dorsal, (C) posterior, (D) left lateral, and (E) right lateral view. Abbreviations: POSL, postspinal lamina; PRSL, prespinal lamina; SPOL, spinopostzygapophyseal lamina; SPRL, spinoprezygapophyseal lamina; VCON, ventral concavity; VLR, ventrolateral ridge. Scale bar: 100 mm.
Figure 3 in Anatomy of the basal titanosaur (Dinosauria, Sauropoda) Andesaurus delgadoi from the mid-Cretaceous (Albian-early Cenomanian) Río Limay Formation, Neuquén Province, Argentina: implications for titanosaur systematics
Figure 3. Andesaurus delgadoi. Photographs of first caudal vertebra (Cd1) in (A) anterior, (B) posterior, (C) left lateral, and (D) dorsal (anterior surface at top of image) view. Scale bar: 100 mm.
Figure 2 in Anatomy of the basal titanosaur (Dinosauria, Sauropoda) Andesaurus delgadoi from the mid-Cretaceous (Albian-early Cenomanian) Río Limay Formation, Neuquén Province, Argentina: implications for titanosaur systematics
Figure 2. Andesaurus delgadoi. Photographs of dorsal vertebrae (Dv2) in (A) anterior, (B) right lateral, and (C) posterior view; (D) Dv3–Dv4 in right lateral view. Note that (C) is from a slightly oblique view because the vertebra is still in its field jacket, and so cannot be examined fully perpendicularly. Abbreviations: AL, accessory lamina; CPOL, centropostzygapophyseal lamina; CPRL, centroprezygapophyseal lamina; HYP, hyposphene; LFOR, lateral foramen; LFOS, lateral fossa; PCDL, posterior centrodiapophyseal lamina; PCPL, posterior centroparapophyseal lamina; PODL, postzygodiapophyseal lamina; POSL, postspinal lamina; PPF, postparapophyseal fossa; PRDL, prezygodiapophyseal lamina; PRSL, prespinal lamina; SPDL, spinodiapophyseal lamina; SPOL, spinopostzygapophyseal lamina; SPRL, spinoprezygapophyseal lamina. Scale bar: 200 mm.
Figure 1 in Anatomy of the basal titanosaur (Dinosauria, Sauropoda) Andesaurus delgadoi from the mid-Cretaceous (Albian-early Cenomanian) Río Limay Formation, Neuquén Province, Argentina: implications for titanosaur systematics
Figure 1. Map showing the El Chocón locality where the holotype of Andesaurus delgadoi was discovered (marked with a star). Inset map A shows the position of Neuquén Province within Argentina, and map B shows Neuquén Province. The black box within map B represents the area displayed in the main map (figures modified from Calvo, 1999).
Figure 4 in Anatomy of the basal titanosaur (Dinosauria, Sauropoda) Andesaurus delgadoi from the mid-Cretaceous (Albian-early Cenomanian) Río Limay Formation, Neuquén Province, Argentina: implications for titanosaur systematics
Figure 4. Andesaurus delgadoi. Photographs of anterior caudal vertebrae: (A) Cd2 in right lateral view; Cd3 in (B) left lateral, (C) dorsal, (D) anterior, (E) posterior, and (F) ventral views; vf, vascular foramen. Scale bar: 100 mm.
Figure 10. Canonical variate axes 1 and 2 resulting from a in Molecular and morphometric variation in two sibling species of the genus Praomys (Rodentia: Muridae): implications for biogeography
Figure 10. Canonical variate axes 1 and 2 resulting from a canonical variate analysis comparing the three operational taxonomic units (OTUs) of Praomys misonnei (West Africa, West Central Africa, and Central + East Africa). Two individuals from Nigeria were plotted on the graph. The group centroids (symbols) and extreme limits of each scatter plot of points are indicated.
Figure 2 in Molecular and morphometric variation in two sibling species of the genus Praomys (Rodentia: Muridae): implications for biogeography
Figure 2. Schematic drawings of a skull (in dorsal, ventral, and lateral views) and mandibule of of Praomys, showing the 21 craniodental variables recorded in this study (see the Material and methods section for the definitions of these measurements).
Figure 3 in Molecular and morphometric variation in two sibling species of the genus Praomys (Rodentia: Muridae): implications for biogeography
Figure 3. Phylogeny of cytochrome b haplotypes resulting from maximum-likelihood (ML) analysis (GTR + I + G model). Numbers at nodes represent ML bootstrap support (1000 replications), and Bayesian posterior probabilities.
Figure 6 in Molecular and morphometric variation in two sibling species of the genus Praomys (Rodentia: Muridae): implications for biogeography
Figure 6. Minimum spanning network of Praomys misonnei (A) and Praomys tullbergi (B) cytochrome b haplotypes. Circle sizes are proportional to the number of similar haplotypes observed in the data set. Branch lengths are proportional to the number of mutations between haplotypes. See Appendix S1 for the haplotype designations.
Figure 7 in Molecular and morphometric variation in two sibling species of the genus Praomys (Rodentia: Muridae): implications for biogeography
Figure 7. Minimum spanning network of Praomys misonnei (A) and Praomys tullbergi (B) 16S haplotypes. Circle sizes are proportional to the number of similar haplotypes observed in the data set. Branch lengths are proportional to the number of mutations between haplotypes. See Appendix S1 for the haplotype designations.
Figure 1. Map showing the 40 in Molecular and morphometric variation in two sibling species of the genus Praomys (Rodentia: Muridae): implications for biogeography
Figure 1. Map showing the 40 sites yielding the specimens of Praomys tullbergi and Praomys misonnei that were included in the molecular analyses. For the names of the localities, see Table 1. Forests are indicated in light grey (adapted from Mayaux et al., 2004).
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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.