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Figure 5 in New material of Pepesuchus (Crocodyliformes; Mesoeucrocodylia) from the Bauru Group: implications about its phylogeny and the age of the Adamantina Formation
Figure 5. Palatal surfaces of the maxillary from A, Pepesuchus deiseae (MCT 1788-R), with an anterior portion of the palatines showing a tipping point, compared with B, MCT 1723-R, with a broad and round anterior portion. Grey areas are associated sediments; hatched areas are broken parts. Scale bars represent 5 cm.
Figure 6 in Systematic revision of the early Miocene fossil Pseudoepicrates (Serpentes: Boidae): implications for the evolution and historical biogeography of the West Indian boid snakes (Chilabothrus)
Figure 6. Selected examples of the extant comparative material used in the study. A, midtrunk vertebra of Chilabothrus angulifer (AMNH R 77596); B, midtrunk vertebra of Chilabothrus cf C. inornatus from the Pleistocene of Cuba (AMNH 7709); C, midtrunk vertebra of 'barbouri' (previous holotype MCZ 1978); D, midtrunk vertebra of Boa constrictor (MCN.D. 344); and E, midtrunk vertebra of Epicrates cenchria (MCN PV DR 002). Anatomical views of the vertebrae are sorted in column at the lower portion of the image. Scale bar: 5 mm.
Figure 5 in Systematic revision of the early Miocene fossil Pseudoepicrates (Serpentes: Boidae): implications for the evolution and historical biogeography of the West Indian boid snakes (Chilabothrus)
Figure 5. Paratypes previously attributed to N. barbouri (= Pseudoepicrates). Letters A–D denotes the specimens. Anatomical views of the vertebrae are sorted above each image. Abbreviations are given in the relevant section.
Figure 3. MCT 1723-R, rostrum. A, B, dorsal views. C, D in New material of Pepesuchus (Crocodyliformes; Mesoeucrocodylia) from the Bauru Group: implications about its phylogeny and the age of the Adamantina Formation
Figure 3. MCT 1723-R, rostrum. A, B, dorsal views. C, D, ventral views. Grey areas are associated sediments; hatched areas are broken parts. Scale bars represent 5 cm.
Figure 10. A in Systematic revision of the early Miocene fossil Pseudoepicrates (Serpentes: Boidae): implications for the evolution and historical biogeography of the West Indian boid snakes (Chilabothrus)
Figure 10. A, calibrated phylogenetic hypothesis of Reynolds et al. (2013). Blue dot: the estimated age of divergence of the group [(Chilabothrus) + (Epicrates + Eunectes)] at ~30.0 Mya. Red dot: the estimate age for origin of the genus Chilabothrus at ~22 Mya. The dashed line shows the age of the site of Chilabothrus stanolseni comb. nov. ~18.5 Mya, marking the oldest record of the genus. B, schematic map of the early Miocene showing the biogeographical dispersion and diversification of the genus Chilabothrus. Red arrow: probable route of dispersion via Northern South America, which is here considered the most likely based on multiple lines of evidence, including genetic divergence, oceanic current patterns, incidence of vertebrates taxa and estimated dispersal time of initial dispersion ~22 Mya (Hedges, 1996, 2001; Reynolds et al., 2013). Green arrow: alternative route of dispersion to the West Indian Island complex from the Central America, estimate dispersal time of ~22 Mya (Hedges, 1996). Pink arrow: route of dispersion from North America, hypothesis based on Tolson (1987) due to the presence of Pseudoepicrates, considered unlikely here. Orange arrow: second dispersal event of Chilabothrus stanolseni comb. nov. to the North American Territory from the West Indies (estimated age of at least ~18.5 Mya). Blue arrow: dispersion throughout the West Indies' island complex, prefacing the diversification of the current extant species of the insular complex (estimated age since ~22 Mya to the Holocene). Hypothesis adapted from Reynolds et al. (2013). Paleomap reconstruction based on Scotese (2010).
Figure 8 in New material of Pepesuchus (Crocodyliformes; Mesoeucrocodylia) from the Bauru Group: implications about its phylogeny and the age of the Adamantina Formation
Figure 8. Right maxillary tooth of MCT 1723-R, showing the false ziphodont condition. Grey areas are associated sediments; hatched areas are broken parts. Scale bar represents 5 cm.
Figure 7 in New material of Pepesuchus (Crocodyliformes; Mesoeucrocodylia) from the Bauru Group: implications about its phylogeny and the age of the Adamantina Formation
Figure 7. Comparison between the suture pattern of the following: A, Pepesuchus deiseae MN 7005-V; B, MCT 1723-R; C, Barreirosuchus franciscoi (MPMA 04-0012-00); D, Montealtosuchus arrudacamposi (MPMA-16-0007-04); E, Notosuchus terrestris (MLP 64 IV-16-5 (253)); and F, Stratiotosuchus maxhechti (DGM 1477-R). Grey areas are associated sediments; hatched areas are broken parts. Scale bars represent 1 cm (B–E) or 7 cm (F).
Figure 9 in Systematic revision of the early Miocene fossil Pseudoepicrates (Serpentes: Boidae): implications for the evolution and historical biogeography of the West Indian boid snakes (Chilabothrus)
Figure 9. Comparison between the holotype of P. stanolseni MCZ 1977 and an anterior vertebra of B. constrictor MCN. D. 333. Note differences such as the neural spine orientation; the presence of epizygapophyseal process in B. constrictor; the zygosphene roof morphology; and the shallow posterodorsal notch of P. stanolseni. Abbreviations are given in the relevant section. Scale bar: 5 mm.
Figure 9 in New material of Pepesuchus (Crocodyliformes; Mesoeucrocodylia) from the Bauru Group: implications about its phylogeny and the age of the Adamantina Formation
Figure 9. Calibrated cladogram for the consensus strictus for the three most parsimonious trees, depicting only Mesoeucrocodylia. For the complete cladogram, refer to Supplementary Information Data S3. Mesoeucrocodylia. For the complete cladogram, refer.
Figure 1 in Systematic revision of the early Miocene fossil Pseudoepicrates (Serpentes: Boidae): implications for the evolution and historical biogeography of the West Indian boid snakes (Chilabothrus)
Figure 1. Mid-precloacal vertebra of Boa constrictor (MCN.D. 344). A, showing the anatomical features and terminology adopted in the work. Abbreviations are given in the relevant section. B, quantitative proportions and measurements employed in the present work. Anatomical views of the vertebra is present below each image. Scale bar: 10 mm.
Figure 6. MCT 1723-R, mandible. A, B, distal views. C, D in New material of Pepesuchus (Crocodyliformes; Mesoeucrocodylia) from the Bauru Group: implications about its phylogeny and the age of the Adamantina Formation
Figure 6. MCT 1723-R, mandible. A, B, distal views. C, D, ventral views. Grey areas are associated sediments; hatched areas are broken parts. Scale bars represent 5 cm.
Figure 2 in Systematic revision of the early Miocene fossil Pseudoepicrates (Serpentes: Boidae): implications for the evolution and historical biogeography of the West Indian boid snakes (Chilabothrus)
Figure 2. Isolated precloacal vertebrae attributed to Pseudoepicrates stanolseni. A, anterior precloacal vertebra MCZ 1977; B, schematic drawing outline of MCZ 1977 (holotype) evidencing its morphological structures; C, mid-precloacal vertebra of MCZ 1978 'barbouri' material; D, schematic drawing outline of MCZ 1978 evidencing its morphological structures. Anatomical views of the vertebrae are sorted in each column. Scale bar: 5 mm. Abbreviations in the anatomical abbreviations' section.
Single-scattering properties of ice particles in the microwave regime: Temperature effect on the ice refractive index with implications in remote sensing
<p>This database is from the paper: Ding, J., L. Bi, P. Yang, G. W. Kattawar, F. Weng, Q. Liu, and T. Greenwald, 2017: Single-scattering properties of ice particles in the microwave regime: temperature effect on the ice refractive index with implications in remote sensing, Journal of Quantitative Spectroscopy & Radiative Transfer, 190, 26-37. DOI: 10.1016/j.jqsrt.2016.11.026.</p>
Applying the metallicity-dependent binary fraction to double white dwarf formation, Implications for LISA, results
This dataset contains data created by post-processing pipeline to produce the figures from Thiele+2021<br><br>Created using <a href="https://github.com/rodluger/showyourwork">showyourwork</a> from <a href="https://github.com/katiebreivik/hush/tree/ae41b3fbc87d9ef411fec9fd464958c6ab367a2e">this GitHub repo</a> using the following command: <pre><code class="language-bash">cd src/figures && python src/figures/pipeline.py</code></pre>
Phytoplankton Community Patterns in the Northeastern South China Sea: Implications of intensified Kuroshio intrusion during the 2015/16 El Niño
<p>Phytoplankton Community Patterns in the Northeastern South China Sea:<br> Implications of intensified Kuroshio intrusion during the 2015/16 El Niño</p>
Implications of sound velocities of natural topaz on the seismic L-discontinuity
<p>This is the data for the paper "Implications of sound velocities of natural topaz on the seismic L-discontinuity".</p>
Dataset related to article "Defective cyclophilin A induces TDP-43 proteinopathy: implications for amyotrophic lateral sclerosis and frontotemporal dementia"
<p>Dataset related to the article 10.1093/brain/awab333</p>
Figure 9 in Reconstruction of the pharyngeal corpus of Aphelenchus avenae (Nematoda: Tylenchomorpha), with implications for phylogenetic congruence
Figure 9. Simplified relationships between nematode models with reconstructed sensory anatomies and preliminary mapping of characters based on simple parsimony. Relationships shown are a consensus of published phylogenies inferred from 18S and 28S rRNA sequences (Blaxter et al., 1998; Holterman et al., 2006; Meldal et al., 2007), although placement of the root varies amongst some analyses. Numbers correspond to characters (left of dash) and states (right of dash) drawn from Table 2. *Polarity of character is hypothesized given the state in Myolaimus byersi (suborder Myolaimina; Giblin-Davis et al., 2010), which is a possible outgroup to all nematodes in tree (Nadler et al., 2006).
Figure 7 in Reconstruction of the pharyngeal corpus of Aphelenchus avenae (Nematoda: Tylenchomorpha), with implications for phylogenetic congruence
Figure 7. Diagrammatic representation of the pharyngeal corpus in Caenorhabditis elegans and Aphelenchus avenae, showing hypotheses of homology for radial and marginal cells. The top of each diagram shows the cells lining the cuticle of the pharyngeal lumen dorsally; the bottom shows the cells lining the luminal cuticle ventrally. Colours correspond to those used in reconstruction models in Figures 2, 4, and 6 (with colour key in Fig. 6). Drawing of C. elegans informed by Albertson & Thomson (1976) and De Ley et al. (1995). Abbreviations: dgo, dorsal gland orifice; e1–3, 'epithelial' cells 1–3; mc1–2, marginal cells 1–2; pm1–5, pharyngeal muscle cells 1–5.
Figure 1 in Reconstruction of the pharyngeal corpus of Aphelenchus avenae (Nematoda: Tylenchomorpha), with implications for phylogenetic congruence
Figure 1. Summarized phylogenetic tree of Tylenchomorpha and outgroups, which is a consensus of phylogenies from several phylum-wide analyses (Blaxter et al., 1998; Holterman et al., 2006; Meldal et al., 2007; Bert et al., 2008), although placement of the root varies amongst some analyses. Taxa in boxes belong to Tylenchomorpha; taxa on dashed branches belong to 'Aphelenchoidea'. 'Tylenchids sensu stricto' designates all non-aphelenchid Tylenchomorpha.
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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.