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text-fig. 8. Syntarsus rhodesiensis. a, left premaxilla in lateral view (QG unnumbered) showing the forked posterior end of the premaxillary body in this taxon (character state 1 of character 4). B, left maxilla in lateral view (QG 205) showing the horizontal ridge (mr) on the ventral border of the maxillary body (character state 1 of character 15). Scale bars represent 10 mm. in The interrelationships and evolution of basal theropod dinosaurs
text-fig. 8. Syntarsus rhodesiensis. a, left premaxilla in lateral view (QG unnumbered) showing the forked posterior end of the premaxillary body in this taxon (character state 1 of character 4). B, left maxilla in lateral view (QG 205) showing the horizontal ridge (mr) on the ventral border of the maxillary body (character state 1 of character 15). Scale bars represent 10 mm.
text-fig. 14. Theropod skull reconstructions in lateral view showing different character states of characters 42,44, 51, and 70. For sources of reconstructions and identifications of the elements, see Text-figures 4-6. a, Eoraptor lunensis. B, Ceratosaurus sp. c, generalized baryonychid. Dashed lines indicate levels of quadrate-squamosal articulation (wide dash) and mandibular joint (narrow dash); strong line indicates posterior end of tooth row. Scale bars represent 50 mm (a) and 100 mm (b-c). in The interrelationships and evolution of basal theropod dinosaurs
text-fig. 14. Theropod skull reconstructions in lateral view showing different character states of characters 42,44, 51, and 70. For sources of reconstructions and identifications of the elements, see Text-figures 4-6. a, Eoraptor lunensis. B, Ceratosaurus sp. c, generalized baryonychid. Dashed lines indicate levels of quadrate-squamosal articulation (wide dash) and mandibular joint (narrow dash); strong line indicates posterior end of tooth row. Scale bars represent 50 mm (a) and 100 mm (b-c).
Seconds-scale coherence on an optical clock transition in a tweezer array (publication data)
<p>Accompanying data for<em> Seconds-scale coherence on an optical clock transition in a tweezer array.</em></p>
text-fig. 7. Outgroup (a) and theropod (b-g) skull reconstructions in lateral view showing different character states of several cranial characters. For sources of reconstructions and identifications of the bones see Text-figures 4-6. a, Euparkeria capensis. B, Syntarsus rhodesiensis. c, Ceratosaurus sp. D, Allosaurus fragilis. E, Gorgosaurus libratus. F, Velociraptor mongoliensis. Character state indications in this and all following illustrations are as follows: numbers refer to characters discussed in the text; the first number indicates the number of the character, the second the character state. Scale bars represent 10 mm (a-b), 50 mm (f-g) and 100 mm (c-e). in The interrelationships and evolution of basal theropod dinosaurs
text-fig. 7. Outgroup (a) and theropod (b-g) skull reconstructions in lateral view showing different character states of several cranial characters. For sources of reconstructions and identifications of the bones see Text-figures 4-6. a, Euparkeria capensis. B, Syntarsus rhodesiensis. c, Ceratosaurus sp. D, Allosaurus fragilis. E, Gorgosaurus libratus. F, Velociraptor mongoliensis. Character state indications in this and all following illustrations are as follows: numbers refer to characters discussed in the text; the first number indicates the number of the character, the second the character state. Scale bars represent 10 mm (a-b), 50 mm (f-g) and 100 mm (c-e).
text-fig. 15. Occipital views of the skulls of a basal ornithischian (a) and two theropods (b-c), illustrating different character states for several cranial characters, a, basal ornithischian Lesothosaurus diagnostic^-, redrawn from Sereno (19916)- B, Herrerasaurus ischigualastensis; redrawn from Sereno and Novas (1993). c, Allosaurusfragilis (braincase only); based on BYU Mes 5583. Abbreviations: boc, basioccipital; bsp, basisphenoid; bt, basal tuber; eo, exoccipital; f, frontal; fm, foramen magnum; itf, infratemporal fenestra; oc, occipital condyle; pa, parietal; po, postorbital; pop, paroccipital process; pt, pterygoid; q, quadrate; qf, quadrate foramen; qj, quadratojugal; soc, supraoccipital; socw, supraoccipital wedge; sq, squamosal; vcd, foramen for the entrance of the vena capitis dorsalis. Dashed lines indicate the level of the dorsal margin of the occipital condyle (wide dash) and the level of the bases of the paroccipital processes (narrow dash). Scale bars represent 10 mm (a) and 50 mm (b-c). in The interrelationships and evolution of basal theropod dinosaurs
text-fig. 15. Occipital views of the skulls of a basal ornithischian (a) and two theropods (b-c), illustrating different character states for several cranial characters, a, basal ornithischian Lesothosaurus diagnostic^-, redrawn from Sereno (19916)- B, Herrerasaurus ischigualastensis; redrawn from Sereno and Novas (1993). c, Allosaurusfragilis (braincase only); based on BYU Mes 5583. Abbreviations: boc, basioccipital; bsp, basisphenoid; bt, basal tuber; eo, exoccipital; f, frontal; fm, foramen magnum; itf, infratemporal fenestra; oc, occipital condyle; pa, parietal; po, postorbital; pop, paroccipital process; pt, pterygoid; q, quadrate; qf, quadrate foramen; qj, quadratojugal; soc, supraoccipital; socw, supraoccipital wedge; sq, squamosal; vcd, foramen for the entrance of the vena capitis dorsalis. Dashed lines indicate the level of the dorsal margin of the occipital condyle (wide dash) and the level of the bases of the paroccipital processes (narrow dash). Scale bars represent 10 mm (a) and 50 mm (b-c).
text-fig. 17. Lateral view of the braincase, illustrating states for several braincase characters, a, basal ornithischian Lesothosaurus diagnosticus; redrawn from Sereno (1991Z?). B, Troödon formosus; based on Currie and Zhao (1993a); the paroccipital process of Troödon is shown in cross-section to illustrate the internal pneumatic cavity within this bone. Abbreviations: atr, anterior tympanic recess; bpt, basipterygoid process; boc, basioccipital; bsp, basisphenoid; bt, basal tuber; ep, episthotic; f, frontal; fo, fenestra ovalis; ic, foramen for the entrance of the vidian canal for the internal carotid; jf, jugular foramen; Is, laterosphenoid; mf, metotic fissure; o, orbital facet on the frontal; oc, occipital condyle; op, opisthotic; osp, orbitosphenoid; pa, parietal; pn, pneumatic openings or cavities; pop, paroccipital process; pro, prootic; ps, parasphenoid; pspc, parasphenoid capsule; ptf, posttemporal foramen; vcm, exit of the vena capitis medialis; Roman numbers refer to the foramina for the exits of cranial nerves. Scale bars represent 10 mm. in The interrelationships and evolution of basal theropod dinosaurs
text-fig. 17. Lateral view of the braincase, illustrating states for several braincase characters, a, basal ornithischian Lesothosaurus diagnosticus; redrawn from Sereno (1991Z?). B, Troödon formosus; based on Currie and Zhao (1993a); the paroccipital process of Troödon is shown in cross-section to illustrate the internal pneumatic cavity within this bone. Abbreviations: atr, anterior tympanic recess; bpt, basipterygoid process; boc, basioccipital; bsp, basisphenoid; bt, basal tuber; ep, episthotic; f, frontal; fo, fenestra ovalis; ic, foramen for the entrance of the vidian canal for the internal carotid; jf, jugular foramen; Is, laterosphenoid; mf, metotic fissure; o, orbital facet on the frontal; oc, occipital condyle; op, opisthotic; osp, orbitosphenoid; pa, parietal; pn, pneumatic openings or cavities; pop, paroccipital process; pro, prootic; ps, parasphenoid; pspc, parasphenoid capsule; ptf, posttemporal foramen; vcm, exit of the vena capitis medialis; Roman numbers refer to the foramina for the exits of cranial nerves. Scale bars represent 10 mm.
text-fig. 12. Left postorbital of two theropods in lateral view and cross-section through the jugal process, illustrating the differences in the outline of the cross-sections (character 41). A, Allosaurus fragilis, based on Madsen (1976). B, Magnosaurus oxoniensis, based on OUM J 13558. Abbreviations: ant, anterior; lat, lateral. Scale bars represent 10 mm. in The interrelationships and evolution of basal theropod dinosaurs
text-fig. 12. Left postorbital of two theropods in lateral view and cross-section through the jugal process, illustrating the differences in the outline of the cross-sections (character 41). A, Allosaurus fragilis, based on Madsen (1976). B, Magnosaurus oxoniensis, based on OUM J 13558. Abbreviations: ant, anterior; lat, lateral. Scale bars represent 10 mm.
Raman data for "Flow-driven micro-scale pH variability affects the physiology of corals and coralline algae under ocean acidification"
<p>This file contains the Raman data and code for "Flow-driven micro-scale pH variability affects the physiology of corals and coralline algae under ocean acidification" by Comeau et al. in Scientific Reports. Run the file, "run.R" in R to reproduce the analysis.</p> <p>Please see the published paper for methods and details: https://doi.org/10.1038/s41598-019-49044-w</p>
Supplementary material 1 from: Amatangelo KL, Stevens L, Wilcox DA, Jackson ST, Sax DF (2018) Provenance of invaders has scale-dependent impacts in a changing wetland ecosystem. NeoBiota 40: 51-72. https://doi.org/10.3897/neobiota.40.28914
Supplementary material 1 from: Amatangelo KL, Stevens L, Wilcox DA, Jackson ST, Sax DF (2018) Provenance of invaders has scale-dependent impacts in a changing wetland ecosystem. NeoBiota 40: 51-72. https://doi.org/10.3897/neobiota.40.28914
Synthetic catalog of seismicity and stressing rate history for "Scaling and variability of interacting repeating earthquake sequences controlled by asperity density"
<p>Sheets 1 to 14: Synthetic catalogs of seismicity listing (for each earthquake):</p> <ul> <li>non dimensional time (1st column)</li> <li>non dimensional seismic moment (2nd column)</li> <li>non dimensional equivalent source radius (3rd column)</li> <li>non dimensional position along strike x (4th column)</li> <li>non dimensional position along dip y (5th column)2</li> </ul> <p>Sheets 15 to 28: time series of the spatial average of:</p> <ul> <li>non dimensional slip (2nd column)</li> <li>non dimensional slip rate (3rd column) </li> <li>non dimensional shear stress (4th column)</li> </ul> <p>Time series corresponding to catalog in sheet i is provided in sheet i+14. See the reference paper for details about the non dimensionalization.</p>
Data used in "Persistent multi-scale fluctuations shift European hydroclimate to its millennial boundaries"
<p>Data used for evaluation of "Persistent multi-scale fluctuations shift European hydroclimate to its millennial boundaries"</p>
FIGURE 2. Stained lateral body scale removed from Sardinella alcyone n in Sardinella alcyone n. sp., a new sardine (Teleostei: Clupeiformes: Clupeidae) from the northwestern Pacific Ocean
FIGURE 2. Stained lateral body scale removed from Sardinella alcyone n. sp. (KAUM–I. 108335, paratype, 72.2 mm SL, Okinawa Island, Ryukyu Islands, Japan).
Fig. 1 in Phylogenetic and functional diversity of African muroid rodents at different spatial scales
Fig. 1 Relationship between species richness of African muroid communities and their respective a phylogenetic diversity, b phylogenetic structure, and c functional diversity. Each dot represents a local community (n = 72). For the phylogenetic structure plot, two linear
Fig. 4 a in Phylogenetic and functional diversity of African muroid rodents at different spatial scales
Fig. 4 a Bray-Curtis dissimilarity dendrogram for illustrating how similar African muroid communities are in terms of their species composition. b Non-metric multidimensional scaling (NMDS) plot of Bray-Curtis dissimilarity on presence data. Communities are coloured according to the biogeographic region to which they belong (yellow: Northern African; orange: Saharan; red: Sudanian; green; Congolian; cy- an: Ethopian; pink: Somalian; blue: Zambezian; grey: Southern African; see the scheme in the in- set, which is an adaptation of the partitioning of Africa proposed by Linder et al. 2012), and their ap- proximate geographical location is represented in the map on the left
Fig. 3 a in Phylogenetic and functional diversity of African muroid rodents at different spatial scales
Fig. 3 a Pairwise results of partition of phylogenetic and functional β diversity into its nestedness (above diagonal) and turnover (below diagonal) components wherein higher values are indicated in red. b Phylogenetic and functional dendrograms obtained by using UPGMA
Fig. 4 in Variability on microevolutionary and macroevolutionary scales: a review on patterns of morphological variation in Cnidaria Medusozoa
Fig. 4 Schematic summary of levels of morphological variation found in medusozoans, including the absence of variation (cryptic species). Clades indicate different lineages, colors and shades represent the phenotype in current time, and the circles represent individuals. Note that there is individual variation (arrows) and it can parallel intraspecific variation. The same occurs with interspecific variation, which can parallel intraspecific variation in b
Fig. 1 in Variability on microevolutionary and macroevolutionary scales: a review on patterns of morphological variation in Cnidaria Medusozoa
Fig. 1 Intracolony variation in Orthopyxis sargassicola (Nutting, 1915) based on three polyps randomly sampled from a single colony (MZUSP4079, see Online Resource 1). a Measurements (in μm) of total length of trophosome (Tr), length of pedicel (Pd), hydrothecal length (Hd), and diameter at margin (Diam); b measurements (in μm) of maximum perisarc (Ps) thickness (Thick) of hydrotheca and pedicel at medial portion, as well as maximum number of sinuosities (NS) in pedicel and number of hydrothecal cusps (NC); c, d polyps of O. sargassicola from a single colony (both polyps are at the same position of maximum perisarc thickness). Note the differences in size and shape of the pedicels (Pd) and hydrotheca (Hd), as well as the perisarc thickness (Ps) and sinuosities of the pedicel (S)
Fig. 5 in Resurrection of the Comoran fish scale gecko Geckolepis humbloti Vaillant, 1887 reveals a disjunct distribution caused by natural overseas dispersal
Fig. 5 Photos of Geckolepis humbloti. a ZSM 80/2010 from the type locality Grand Comoro. Lateral scales were shed in a defensive reaction during capturing. b ZSM 84/2010 at 632 m near Pomoni, Anjouan, the highest recorded locality of any Geckolepis. c ZSM 1699/2008 at Choungui, Mayotte, in a natural hiding place under the bark of a tree. d Habitat of G. humbloti at the dry forest of Saziley, Mayotte
Fig. 4 in Resurrection of the Comoran fish scale gecko Geckolepis humbloti Vaillant, 1887 reveals a disjunct distribution caused by natural overseas dispersal
Fig. 4 The skulls of Geckolepis humbloti (ZSM 81/2006 and ZSM 80/ 2010) in a dorsal, b ventral, and c lateral view. Length of bar = 1 mm. See Supplementary A3 for PDF-embedded interactive 3D models of these skulls
Fig. 1 in Resurrection of the Comoran fish scale gecko Geckolepis humbloti Vaillant, 1887 reveals a disjunct distribution caused by natural overseas dispersal
Fig. 1 Results of the molecular genetic analysis of Geckolepis. The maximum likelihood tree is based on 12S and ND4 sequences. Only closely related outgroups are shown. Support values of 1000 bootstrap repeats are given below nodes. TB Tsingy de Bemaraha, AN Anjouan, GC Grand Comoro, MA Mayotte, Mo Mohéli. All representatives of the taxonomically unresolved Geckolepis maculata complex are named Geckolepis maculata in the tree
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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.