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FIGURE1. Map showing the sampling localities and distribution of all valid Korean species identified and described so far. The black line between Stations 6a and 6b represents a man-made road with no gap for water entry from either side. Stations 1 to 15 refer to the study sites in Vakati et al. (2019), station 16 refers to the study site in Kim et al. (2017). in -On- two- new- species- of- Nannopus- Brady,- 1880- (Copepoda:- Harpacticoida Nannopodidae)-from-intertidal-mudflats-of-the-Korean-west-coast-(Yellow-Sea)
FIGURE1. Map showing the sampling localities and distribution of all valid Korean species identified and described so far. The black line between Stations 6a and 6b represents a man-made road with no gap for water entry from either side. Stations 1 to 15 refer to the study sites in Vakati et al. (2019), station 16 refers to the study site in Kim et al. (2017).
FIGURE 42. Maximum Likelihood consensus tree inferred from the 16S rDNA sequence alignment representing a in Monographic revision of the endemic Helix mazzullii De Cristofori & Jan, 1832 complex from Sicily and re-introduction of the genus Erctella Monterosato, 1894 (Pulmonata, Stylommatophora, Helicidae)
FIGURE 42. Maximum Likelihood consensus tree inferred from the 16S rDNA sequence alignment representing a possible reconstruction of Helicidae phylogeny. Initial trees for the heuristic search were obtained automatically. A GTR + Γ model (alpha= 0.29) was employed. The analysis involved 58 nucleotide sequences. All positions containing gaps and missing data were eliminated.
FIGURES 11–20 in Description of Alocobisium tibetense sp. nov., representing the first record of the pseudoscorpion family Syarinidae (Arachnida: Pseudoscorpiones) from China
FIGURES 11–20. Alocobisium tibetense sp. nov., holotype male. 11, right chela (without pedicel), lateral view; 12, galea; 13, pedipalp (minus chela), dorsal view; 14, right chelicera, dorsal view; 15, rallum; 16, right leg IV; 17, genital area, ventral view; 18, left chela, dorsal view; 19, feather-shaped setae on right chelal finger, dorso-lateral view; 20, carapace, dorsal view. Scale lines: 0.5 mm (Fig. 20), 0.4 mm (Figs 13, 16), 0.1 mm (Figs 11, 18), 0.05 mm (Figs 12, 14–15, 17, 19).
FIGURE 1. Alocobisium rahmi Beier, 1976 in Description of Alocobisium tibetense sp. nov., representing the first record of the pseudoscorpion family Syarinidae (Arachnida: Pseudoscorpiones) from China
FIGURE 1. Alocobisium rahmi Beier, 1976, holotype female (right) and paratype female (left), habitus, dorsal view.
FIGURES 2–9. Alocobisium rahmi Beier, 1976 in Description of Alocobisium tibetense sp. nov., representing the first record of the pseudoscorpion family Syarinidae (Arachnida: Pseudoscorpiones) from China
FIGURES 2–9. Alocobisium rahmi Beier, 1976, holotype (3–9) and paratype (2). 2, carapace, dorsal view; 3, right chelicera, dorsal view (teeth magnified); 4, galea; 5, left pedipalp (without trochanter), dorsal view; 6, left leg IV; 7, right chela, lateral view (with details of teeth); 8, right leg I; 9, feather-shaped setae on right chelal finger, lateral view. Scale lines: 0.4 mm (Figs 2–3, 5–8), 0.05 mm (Figs 4, 9).
FIGURES 28–31 in Mayflies of the Caucasus Mountains. II. Description of the first representative of the subgenus Helvetoraeticus Bauernfeind & Soldán, 2012 (Heptageniidae: Ecdyonurus)
FIGURES 28–31. Ecdyonurus (Helvetoraeticus) adjaricus sp. nov., larva: 28, 29, surface of tibia (centrally, dorsal view); 30, surface of tarsus (centrally, dorsal view); 31, tarsal claw.
FIGURES 3–5 in Mayflies of the Caucasus Mountains. II. Description of the first representative of the subgenus Helvetoraeticus Bauernfeind & Soldán, 2012 (Heptageniidae: Ecdyonurus)
FIGURES 3–5. Ecdyonurus (Helvetoraeticus) adjaricus sp. nov., larva, paratype, dorsally: 3, general view; 4, color pattern of mesonotum and abdominal terga; 5, head and thorax.
FIGURES 13–15 in Mayflies of the Caucasus Mountains. II. Description of the first representative of the subgenus Helvetoraeticus Bauernfeind & Soldán, 2012 (Heptageniidae: Ecdyonurus)
FIGURES 13–15. Ecdyonurus (Helvetoraeticus) adjaricus sp. nov., larva, dorsally: 13, 14, lateral projection of pronotum; 15, abdominal terga I−IV.
FIGURE 42 in Mayflies of the Caucasus Mountains. II. Description of the first representative of the subgenus Helvetoraeticus Bauernfeind & Soldán, 2012 (Heptageniidae: Ecdyonurus)
FIGURE 42. Type locality of Ecdyonurus (Helvetoraeticus) adjaricus sp. nov. (Kintrishi River, upper part, 2 km downstream at the border of the Kintrishi State Nature Reserve, AR Adjara, Georgia).
FIGURES 1–2 in Mayflies of the Caucasus Mountains. II. Description of the first representative of the subgenus Helvetoraeticus Bauernfeind & Soldán, 2012 (Heptageniidae: Ecdyonurus)
FIGURES 1–2. Ecdyonurus (Helvetoraeticus) adjaricus sp. nov., male imago, holotype: 1, penis lobes, dorsally; 2, genitalia, ventrally.
FIGURES 9–12 in Mayflies of the Caucasus Mountains. II. Description of the first representative of the subgenus Helvetoraeticus Bauernfeind & Soldán, 2012 (Heptageniidae: Ecdyonurus)
FIGURES 9–12. Ecdyonurus (Helvetoraeticus) adjaricus sp. nov., larvae, paratypes, abdomen ventrally: male (9−11); female (12).
FIGURES 36–41 in Mayflies of the Caucasus Mountains. II. Description of the first representative of the subgenus Helvetoraeticus Bauernfeind & Soldán, 2012 (Heptageniidae: Ecdyonurus)
FIGURES 36–41. Ecdyonurus (Helvetoraeticus) adjaricus sp. nov., egg: 36, 37, general outline of the egg, scale bar = 10 μm; 38, 39, egg pole with cluster of large KCTs attachment structures, scale bar = 10 μm; 40, chorionic surface with tubercles and attachment structures (KCTs), scale bar = 1 μm; 41, micropyle, scale bar = 1 μm.
FIGURES 22–27 in Mayflies of the Caucasus Mountains. II. Description of the first representative of the subgenus Helvetoraeticus Bauernfeind & Soldán, 2012 (Heptageniidae: Ecdyonurus)
FIGURES 22–27. Ecdyonurus (Helvetoraeticus) adjaricus sp. nov., larva: 22, posterior margin of tergum IV; 23, surface of terminal filament (details); 24, 25, surface of trochanter; 26, surface of metafemur (proximally, dorsal view); 27, surface of metafemur (distally, dorsal view).
FIGURES 32–35 in Mayflies of the Caucasus Mountains. II. Description of the first representative of the subgenus Helvetoraeticus Bauernfeind & Soldán, 2012 (Heptageniidae: Ecdyonurus)
FIGURES 32–35. Ecdyonurus (Helvetoraeticus) adjaricus sp. nov., larva: 32, lateral projection of pronotum (dorsally); 33−35, tergalii shape (dorsally), roman numbers belongs to the respective tergalius pairs.
FIGURES 6–8 in Mayflies of the Caucasus Mountains. II. Description of the first representative of the subgenus Helvetoraeticus Bauernfeind & Soldán, 2012 (Heptageniidae: Ecdyonurus)
FIGURES 6–8. Ecdyonurus (Helvetoraeticus) adjaricus sp. nov., larva, paratype, dorsally: 6, head and thorax; 7, color pattern of abdominal terga; 8, general view.
FIGURES 16–21 in Mayflies of the Caucasus Mountains. II. Description of the first representative of the subgenus Helvetoraeticus Bauernfeind & Soldán, 2012 (Heptageniidae: Ecdyonurus)
FIGURES 16–21. Ecdyonurus (Helvetoraeticus) adjaricus sp. nov., larva: 16, glossa and paraglossa of labium; 17, labrum, ventrally; 18, outer margin of metafemur; 19, inner margin of metafemur; 20, femoral setae (surface of metafemur, proximally); 21, femoral setae (surface of metafemur, centrally).
First virtual endocast description of an early Miocene representative Pan-Octodontoidea (Caviomorpha, Hystricognathi) and considerations on the early brain evolution in South American rodents
<p><span>The study of the cranial endocast provides valuable information to understand the behavior of an organism since it coordinates sensory information and motor functions. In this work, we describe for the first time the anatomy of the encephalon of an early Miocene pan-octodontoid caviomorph rodent (<em>Prospaniomys</em> <em>priscus</em>) found in the Argentinean Patagonia, based on virtual 3D endocast. This fossil rodent has an endocast morphology here considered ancestral for Pan-Octodontoidea and also other South American caviomorph lineages, such as an encephalon with anteroposteriorly aligned elements, mesencephalon dorsally exposed, well-developed vermis of the cerebellum, rhombic cerebral hemispheres with well-developed temporal lobes. <em>Prospaniomys</em> also has relatively small olfactory bulbs, large paraflocculi of the cerebellum, low endocranial volume, and a degree of neocorticalization. Its EQ is lower compared with Paleogene North American and European non-caviomorph rodents, but slightly higher than several late early and late Miocene caviomorphs. The paleoneurological anatomical information supports the hypothesis that <em>Prospaniomys</em> was a generalist caviomorph rodent with terrestrial habits, and enhanced low-frequency auditory specializations. The scarce paleoneurological information indicates that several endocast characters in caviomorph rodents could change with ecological pressures. This work sheds light on the anatomy and evolution of several paleoneurological aspects of this particular group of South American rodents. </span></p>
Mash Sketch of RefSeq Bacterial Representative Genomes v215
<p>Prepared as described in https://github.com/UPHL-BioNGS/DesolationCanyon.</p> <p> </p> <p>This is the representative genomes of refseq 215 with their taxon name.</p>
Species of Acantholichen occurring only in the Neotropics show a high degree of endemism (Dal Forno et al. 2016). Of the seven species now recognized in this genus (Table 2), 71.4% (5) are known only from South America. As with Dictyonema, Acantholichen seem to be specific to substrate type and appears in the Andean small forest occurring on mosses in tree bark inhabiting mostly exposed habitats. Cyphellostereum is also represented by a high number of species restricted to the Neotropics [6 (66.6%)], while one is known only from North America, one from Southeastern United States and Puerto Rico, and another species is known only from Borneo and Fiji (Table 2). It is probably due to their unusual appearance that these lichens are getting confused with free-living cyanobacteria colonies, and that there are still undescribed species in the Neotropics. in Eight new species of lichenized Basidiomycota in the genera Acantholichen, Cyphellostereum and Dictyonema s.str. (Agaricales, Hygrophoraceae) from northern South America
Species of Acantholichen occurring only in the Neotropics show a high degree of endemism (Dal Forno et al. 2016). Of the seven species now recognized in this genus (Table 2), 71.4% (5) are known only from South America. As with Dictyonema, Acantholichen seem to be specific to substrate type and appears in the Andean small forest occurring on mosses in tree bark inhabiting mostly exposed habitats. Cyphellostereum is also represented by a high number of species restricted to the Neotropics [6 (66.6%)], while one is known only from North America, one from Southeastern United States and Puerto Rico, and another species is known only from Borneo and Fiji (Table 2). It is probably due to their unusual appearance that these lichens are getting confused with free-living cyanobacteria colonies, and that there are still undescribed species in the Neotropics.
Follow-up representative source data of metastatic colorectal cancer patients treated with TAS-102 and regorafenib
<p>Follow-up representative source data of metastatic colorectal cancer patients treated with TAS-102 and regorafenib (date of vital status and tomographic scans).</p>
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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.