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FIGURE 1. Lectotype FMNH 407458 in Penelope superciliaris pseudonyma Neumann, 1933 (Aves, Cracidae) is the valid name for the blue-faced population of Rusty-margined Guan endemic to the Madeira-Tapajós interfluvium of central Amazonian Brazil
FIGURE 1. Lectotype FMNH 407458 of Penelope superciliaris pseudonyma Neumann, 1933, deposited at the Field Museum of Natural History. Photos: Thiago V. V. Costa
FIGURE 4 in Penelope superciliaris pseudonyma Neumann, 1933 (Aves, Cracidae) is the valid name for the blue-faced population of Rusty-margined Guan endemic to the Madeira-Tapajós interfluvium of central Amazonian Brazil
FIGURE 4. Blue face skin of recently collected specimens: MZUSP 95764 seconds (A) and MZUSP 86399 minutes (B) after being collected, showing the rapid loss of color in bare parts. Photos: Fabio Schunck
FIGURE 3 in Penelope superciliaris pseudonyma Neumann, 1933 (Aves, Cracidae) is the valid name for the blue-faced population of Rusty-margined Guan endemic to the Madeira-Tapajós interfluvium of central Amazonian Brazil
FIGURE 3. Dorsal (A) and ventral view (B) of the seven specimens collected in the Madeira-Tapajós interfluvium. Left to right: LSUMZ B-86475, MZUSP 97239, MZUSP 95762, LSUMZ B-80658, MZUSP 95764, MZUSP 86399 and MZUSP 86400. Photos: Fabio Schunck
FIGURE 2 in Penelope superciliaris pseudonyma Neumann, 1933 (Aves, Cracidae) is the valid name for the blue-faced population of Rusty-margined Guan endemic to the Madeira-Tapajós interfluvium of central Amazonian Brazil
FIGURE 2. Labels attached to the lectotype FMNH 407458 of Penelope superciliaris pseudonyma Neumann, 1933, collected by H. Lako. Newest label (A, B) translated from German from the oldest label (C). Photos: Thiago V. V. Costa
FIGURE 6 in Channa pseudomarulius, a valid species of snakehead from the Western Ghats region of peninsular India (Teleostei: Channidae), with comments on Ophicephalus grandinosus, O. theophrasti and O. leucopunctatus
FIGURE 6. Original illustration (A) of Ophicephalus grandinosus reproduced from Cuvier & Valenciennes (1831) and lateral view (B) of lectotype (MNHN A 1959, 564 mm SL). Original illustration (C) of O. theophrasti reproduced from Jacquemont (1839) and lateral view (D) of holotype (MNHN A-668, 330 mm SL). Reproduction of Sykes' (1841) original illustration of O. leucopunctatus (E).
FIGURE 3 in Channa pseudomarulius, a valid species of snakehead from the Western Ghats region of peninsular India (Teleostei: Channidae), with comments on Ophicephalus grandinosus, O. theophrasti and O. leucopunctatus
FIGURE 3. Channa pseudomarulius, colouration in life. Juvenile (A), KUFOS 2017.KUT.15, ca. 55 mm SL, Kerala, Kuttiyadi river; juvenile (B) ca. 80 mm SL, Kerala, Irrity, not preserved; subadult (C), 164 mm SL, Kerala, Pamba River, not preserved.
FIGURE 1 in Channa pseudomarulius, a valid species of snakehead from the Western Ghats region of peninsular India (Teleostei: Channidae), with comments on Ophicephalus grandinosus, O. theophrasti and O. leucopunctatus
FIGURE 1. Map of the Indian subcontinent showing geographical origin of specimens and DNA samples examined in this study. Only reasonably precise localities are mapped. Type locality of Channa pseudomarulius uncertain.
FIGURE 2 in Channa pseudomarulius, a valid species of snakehead from the Western Ghats region of peninsular India (Teleostei: Channidae), with comments on Ophicephalus grandinosus, O. theophrasti and O. leucopunctatus
FIGURE 2. Channa pseudomarulius, holotype (BMNH 1854.6.13.123, 200 mm SL), lateral view (A); juvenile (KUFOS 2017.KUT.15, 56 mm SL), lateral view (B); juvenile (ZRC 41657, 100.5 mm SL), lateral view (C); adult (ZRC 22869, 363 mm SL), lateral view.
FIGURE 8 in Channa pseudomarulius, a valid species of snakehead from the Western Ghats region of peninsular India (Teleostei: Channidae), with comments on Ophicephalus grandinosus, O. theophrasti and O. leucopunctatus
FIGURE 8. Scatter plot of head length versus standard length, loess lines show trend for each species. The appearance of larger head sizes in Channa pseudomarulius specimens is related to the shorter body of this species in comparison to C. marulius, as reflected by lower vertebral, lateral line scale, and dorsal- and anal-fin ray counts (see Figure 7). This difference in head size is especially apparent when comparing larger specimens (>200mm).
FIGURE 7 in Channa pseudomarulius, a valid species of snakehead from the Western Ghats region of peninsular India (Teleostei: Channidae), with comments on Ophicephalus grandinosus, O. theophrasti and O. leucopunctatus
FIGURE 7. Bar graphs of selected meristic characters illustrating differences between Channa pseudomarulius and C. marulius (data includes lectotype of O. grandinosus and holotype of O. theophrasti as C. marulius).
FIGURE 4 in Channa pseudomarulius, a valid species of snakehead from the Western Ghats region of peninsular India (Teleostei: Channidae), with comments on Ophicephalus grandinosus, O. theophrasti and O. leucopunctatus
FIGURE 4. Median-joining networks show the hypothesised evolutionary relationships between CO1 haplotypes (615 bps) for Channa pseudomarulius (left) and C. marulius (right). In each network, circles represent individual haplotypes, lines between haplotypes represent single base pair mutations, and small filled circles represent hypothesised intermediate haplotypes not sampled in this study. There was a minimum of 49 mutational differences between haplotypes from each species. Colour of each haplotype corresponds to geographical locations illustrated on map of Indian subcontinent, unfilled circles represent haplotypes that were observed in samples of unverified origin (all C. pseudomarulius were from Kerala/South India, the unverified C. marulius was reportedly from an unknown location in Andhra Pradesh).
Philippines - Open, validated health, climate, environment and socioeconomic data
<p>The <strong>Project Climate Change, Health, and Artificial Intelligence (Project CCHAIN)</strong> dataset is a validated, open-sourced linked dataset containing 20 years (2003-2022) of climate, environmental, socioeconomic, and health dimensions at the barangay (village) level across twelve Philippine cities (Dagupan, Palayan, Navotas, Mandaluyong, Muntinlupa, Legazpi, Iloilo, Mandaue, Tacloban, Zamboanga, Cagayan de Oro, Davao).</p> <p>The full documentation can be accessed <a href="https://thinkingmachines.github.io/project-cchain">here</a>.</p> <p>The tables are designed in a way that users can <strong>choose variables that are most relevant</strong> to their focus city and use case, and <strong>link these variables</strong> to form a single dataset by merging using standard geography codes and calendar dates. This can be done using the provided <a href="https://drive.google.com/drive/folders/123MrMXSVT6149MvJ8hGoDgN1s-YlQoH_">linking notebook</a>, or offline using the user's own code.</p> <p>Here are some tips on how make most use of this dataset:</p> <ul> <li> <p><strong>Focus on one location.</strong> Starting with a detailed analysis of one location allows for a better understanding of the local dynamics, which may differ across locations.</p> </li> <li> <p><strong>Choose one health data source.</strong> Pick one of either a central or local data source. Using two different data health sources is not advised because it will lead to double/overcounting of disease cases.</p> </li> <li> <p><strong>Do not use all variables at once- do a literature review first to identify possible key variables</strong>. to identify possible key variables. More often than not, using all variables is not necessary and may even yield subpar results.</p> </li> <li> <p><strong>Check data availability</strong> on your focus location and make sure they fit the requirements of your study.</p> </li> </ul>
Using GOLD Plasma Bubble Observations for Validation of Geolocation of Plasma Irregularities by Back Propagation of the High-Rate FORMOSA7/COSMIC 2 Scintillation Data
The dataset contains files geolocation of scintillations from COSMIC-2 high rate scnPhs files using back-propagation method. The dataset was used in the paper for validation of the geolocation method. The data are in multi-column ASCII file format.
Source gels for TECprobe validation experiments
<p>Raw source gels for validation experiments performed during the development of the Transcription Elongation Complex RNA structure probing (TECprobe) method.</p>
FIGURE 1 in On the taxonomic validity of Pristimantis tepuiensis (Schlüter & Rödder, 2007) and P. stegolepis (Schlüter & Rödder, 2007), with remarks on the type series of P. guaiquinimensis (Schlüter & Rödder, 2007)
FIGURE 1. Dorsum of the holotype of Pristimantis stegolepis (SMNS 8006.1) showing a slightly granular skin. Photograph by Philippe J. R. Kok.
FIGURE 3 in On the taxonomic validity of Pristimantis tepuiensis (Schlüter & Rödder, 2007) and P. stegolepis (Schlüter & Rödder, 2007), with remarks on the type series of P. guaiquinimensis (Schlüter & Rödder, 2007)
FIGURE 3. Right lateral views of part of the head of (A) holotype of Pristimantis tepuiensis (SMNS 8005.1) showing the presence of supratympanic granules; (B) paratype of P. guaiquinimensis (SMNS 8004.2) showing the presence of similar, but flat and less visible supratympanic granules. Photographs by Philippe J.R. Kok.
FIGURE 4 in Validity of Bartram's Painted Vulture (Aves: Cathartidae)
FIGURE 4. As reproduced from a photograph in Knight (1996), a limestone bowl recovered from the Moundville prehistoric site in central Alabama in 1906 has a handle resembling the head and neck of a King Vulture (or Painted Vulture), as suggested by Witmer Stone. A projection from the bird's forehead could represent the lappets of this species. Although somewhat posterior to the usual position of these structures, this projection might have been more extensive and extended farther forward in the original bowl. Alternatively, and perhaps more likely, the projection could have been a representation of the forehead snood of a Wild Turkey, as suggested by Steponaitis and Knight (2004). Supporting this interpretation is the existence of an incised worm-like structure on the underside of the bowl resembling the feathered beard of a Wild Turkey.
FIGURE 2. A in Validity of Bartram's Painted Vulture (Aves: Cathartidae)
FIGURE 2. A painting by Narca Moore-Craig illustrates Painted Vultures assembling at a Florida fire to consume roasted lizards and snakes, as described by Bartram. Details of coloration incorporate all of Bartram's descriptive materials, but for features left undescribed by Bartram, such as color of the neck ruff, presence of a red eye-ring, and presence of a dark belt encircling the base of the bill, the painting incorporates characteristics described in Albin's Warwovwen and also known to be present in King Vultures, presumably making the painting as close to the actual Painted Vulture as possible. The width of the terminal dark band to the tail reflects the feathers in Bartram's portrait of Mico Chlucco, rather than Albin's portrait of the Warwovwen, on the assumption that the former were indeed tail feathers of his described Painted Vulture.
FIGURE 1 in Validity of Bartram's Painted Vulture (Aves: Cathartidae)
FIGURE 1. Eleazar Albin's painting of the Warwovwen or Indian Vulture was a hand-colored 1734 rendition of a captive vulture at Charing-Cross, England, that was of uncertain geographic origin, but presumably came from somewhere in the New World. Described details of this bird, including tail color, provide a close match to Bartram's Painted Vulture description, although the colors in this print, reproduced from a copy in the U.S. National Museum, may not fully or accurately reflect their original appearance.
FIGURE 9 in Morphological, biogeographical and molecular evidence of Carpocoris mediterraneus as a valid species (Hemiptera: Pentatomidae)
FIGURE 9. Right parameres of the six European species and subspecies of the genus Carpocoris: A. Carpocoris mediterraneus atlanticus Tamanini, 1958; B. Carpocoris mediterraneus mediterraneus Tamanini, 1958; C. Carpocoris fuscispinus (Boheman, 1851); D. Carpocoris purpureipennis (De Geer, 1773); E. Carpocoris pudicus (Poda, 1761); F. Carpocoris melanocerus (Mulsant & Rey, 1852). Photographs obtained with an inverted microscope Leica DMIL magnification x100, a digital camera JVC 3CCD KY-F75U, and Perfect image software.
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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.