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FIGURE 4 in Systematic revision of the flatfish genus Peltorhamphus Günther, 1862 (Teleostei: Pleuronectiformes: Rhombosoleidae), including description of a new species from Southeastern New Zealand, with biological and ecological summaries for the species
FIGURE 4. General body and head shapes, and relative lengths of elongate ocular-side second pectoral-fin rays of Peltorhamphus. A. P. novaezeelandiae (drawn from NMNZ P.032937, 277 mm SL). B. P. tenuis (drawn from NMNZ P.005421, 124.9 mm SL). C. P. latus (drawn from NMNZ P.041941, 129.0 mm SL). D. P. kryptostomus n. sp. (drawn from NMNZ P.046429, 132.0 mm SL, paratype). Drawn by: M. Freeborne.
FIGURE 2 in Systematic revision of the flatfish genus Peltorhamphus Günther, 1862 (Teleostei: Pleuronectiformes: Rhombosoleidae), including description of a new species from Southeastern New Zealand, with biological and ecological summaries for the species
FIGURE 2. Selected anatomical features of Peltorhamphus. A. Scales (in black) in diagonal row between anteroventral margin of lower eye (EUM distance) and dorsal margin of rostral flap above mouth. B. Pupillary operculum (indicated by arrow) of P. latus. C. Scales on blind sides of dorsal- and anal-fin rays in P. tenuis. Drawn by: M. Freeborne.
FIGURE 3 in Systematic revision of the flatfish genus Peltorhamphus Günther, 1862 (Teleostei: Pleuronectiformes: Rhombosoleidae), including description of a new species from Southeastern New Zealand, with biological and ecological summaries for the species
FIGURE 3. Blind-side view of ventral mouth region illustrating anteroventral skin fold on ocular-side lower jaw in Peltorhamphus. A. Lower-jaw marginal skinfold with filaments present (P. novaezeelandiae, P. tenuis, and P. kryptostomus n. sp.). B. Lower-jaw marginal skinfold without filaments (only P. latus). Drawn by: M. Freeborne.
FIGURE 1 in Systematic revision of the flatfish genus Peltorhamphus Günther, 1862 (Teleostei: Pleuronectiformes: Rhombosoleidae), including description of a new species from Southeastern New Zealand, with biological and ecological summaries for the species
FIGURE 1. Photographs of Ocular (A) and Blind (B) sides of the lectotype of Peltorhamphus novaezeelandiae (BMNH 1848.3.18.-, 245 mm SL); unknown location, New Zealand. Photos: S. Raredon.
FIGURE 4 in A new fossil Stempellinella from Eocene Baltic amber, with systematic notes and amendment of the generic diagnosis (Diptera: Chironomidae)
FIGURE 4. Stempellinella gilkai sp. nov., holotype, adult male (F28a LSZ DIZP, Eocene Baltic amber, ~40–45 Ma): A–C hypopygium in dorsal aspect, stacked at different depth levels (A, B) and drawn (C), D, E median volsella (magnified c. 2 times relative to hypopygium photo). Scale bars: 50 μm. MS—median setae, AnP—anal point, SVo—superior volsella, IVo—inferior volsella, Gc—gonocoxite, Gs—gonostylus.
FIGURE 3 in A new fossil Stempellinella from Eocene Baltic amber, with systematic notes and amendment of the generic diagnosis (Diptera: Chironomidae)
FIGURE 3. Stempellinella gilkai sp. nov., holotype, adult male (F28a LSZ DIZP, Eocene Baltic amber, ~40–45 Ma): A, B wing. Scale bar: 100 μm. C—costa, Sc—subcosta, R, R1, R 4+5 —radial veins, RM—radial-median crossvein, M, M1+2, M3+4—median veins, Cu, Cu1—cubital veins, FCu—cubital crossvein, An—anal vein.
FIGURE 1 in A new fossil Stempellinella from Eocene Baltic amber, with systematic notes and amendment of the generic diagnosis (Diptera: Chironomidae)
FIGURE 1. Fourier transform infrared spectroscopy (ATR) spectrum no. 16218 IAA obtained from the piece of Baltic amber (Eocene, ~40–45 Ma) with the examined inclusion.
FIGURE 2 in A new fossil Stempellinella from Eocene Baltic amber, with systematic notes and amendment of the generic diagnosis (Diptera: Chironomidae)
FIGURE 2. Stempellinella gilkai sp. nov., holotype, adult male (F28a LSZ DIZP, Eocene Baltic amber, ~40–45 Ma): A inclusion in amber, B habitus, C head and antenna (white arrows: borders between flagellomeres). Scale bars: 1 cm (A), 500 μm (B), 200 μm (C).
Use of Linux in Education: A Systematic Mapping Study – dataset
<p>The dataset used in the article Use of Linux in Education: A Systematic Mapping Study.</p>
Genetic barcoding systematically comparing haploinsufficiency of key genes in del(5q) MDS reveals a central role for CSNK1A1 in clonal expansion
<p>R object with pre-processed single cell data of the manuscript "<strong>Genetic barcoding systematically comparing haploinsufficiency of key genes in del(5q) MDS reveals a central role for </strong><em>CSNK1A1</em><strong> in clonal expansion"</strong></p>
Direct oral anticoagulants in treatment of cerebral venous thrombosis: systematic review
Objectives Current guidelines do not recommend direct oral anticoagulants (DOAC) to treat cerebral venous thrombosis (CVT) despite their benefits over standard therapy. We performed a systematic review to summarize the published experience of DOAC therapy in CVT. Data sources MEDLINE, EMBASE, and COCHRANE databases up to November 18, 2020. Eligibility criteria All published articles of patients with CVT treated with DOAC were included. Studies without follow-up information were excluded. Data extraction and synthesis Two independent reviewers screened articles and extracted data. A risk of bias analysis was performed. Primary and secondary outcome measures Safety data included mortality, intracranial hemorrhage (ICH), or other adverse events. Efficacy data included recurrent CVT, recanalization rates, and disability by modified Rankin Scales (mRS). Results 33 studies met inclusion criteria. One randomized controlled trial, 5 observational cohorts, and 27 case series or studies reported 279 patients treated with DOAC for CVT: 41% dabigatran, 47% rivaroxaban, 10% apixaban, and 2% edoxaban, in addition to 315 patients treated with standard therapy. The observational cohorts showed a similar risk of death in DOAC and standard therapy arms (RR 2.12, 95%CI 0.29-15.59). New ICH was reported in 2 (0.7%) DOAC-treated patients and recurrent CVT occurred in 4 (1.5%). A favourable mRS between 0 and 2 was reported in 94% of DOAC-treated patients, more likely than standard therapy in observational cohorts (RR 1.13, 95% CI: 1.02-1.25). Conclusion The evidence for DOAC use in CVT is limited although suggests sufficient safety and efficacy despite variability in timing and dose of treatment. This systematic review highlights that further rigorous trials are needed to validate these findings and to determine optimal treatment regimens. PROSPERO ID: CRD42017078398
FIGURES 9–12 in Biology, immature stages, and systematics of snail-killing flies of the genus Colobaea (Diptera: Sciomyzidae), with overviews of aspects of the tribe Sciomyzini
FIGURES 9–12. Cephalopharyngeal skeletons: 9, Colobaea pectoralis (Zetterstedt), first-instar larva; 10, C. pectoralis, second-instar larva; 11, C. punctata (Lundbeck), second-instar larva; 12, C. deemingi Knutson & Bratt, second-instar larva. Abbreviations: DB, dorsal bridge; DC, dorsal cornu; HS, hypostomal sclerite; MH, mouthhook; PS, pharyngeal sclerite; VA, ventral arch; VC, ventral cornu. Measurement in mm.
FIGURE 27 in Systematic revision and morphological phylogenetic analysis of Anchylorhynchus Schoenherr, 1836 (Coleoptera, Curculionidae: Derelomini)
FIGURE 27. Ancestral state reconstruction for the association with host plant genus on the Bayesian tree.
FIGURE 19 in Systematic revision and morphological phylogenetic analysis of Anchylorhynchus Schoenherr, 1836 (Coleoptera, Curculionidae: Derelomini)
FIGURE 19. Male ventrites of species of Anchylorhynchus. Scales: 500 µm. A A. amazonicus, showing recumbent hairs. B A. amazonicus, showing a morph with less elongate scales. C A. imitator, showing that scales on ventrites are never as elongate as in A. amazonicus. D A. goiano. E A. vittipennis. F A. variabilis.
FIGURE 20 in Systematic revision and morphological phylogenetic analysis of Anchylorhynchus Schoenherr, 1836 (Coleoptera, Curculionidae: Derelomini)
FIGURE 20. Ventrites of species of Anchylorhynchus. Retraction of ventrites III–IV is shown in grey. Scales: 500 µm. A A. amazonicus, female. B A. bucki, female. C A. bicarinatus, female. D A. bicarinatus, male. E A. bicolor, female. F A. vittipennis. G A. variabilis, female. H A. variabilis, male.
FIGURE 25 in Systematic revision and morphological phylogenetic analysis of Anchylorhynchus Schoenherr, 1836 (Coleoptera, Curculionidae: Derelomini)
FIGURE 25. Phylogeny of Anchylorhynchus, including outgroups. A Bayesian tree with posterior probabilities as branch support. B Parsimony tree with symmetric bootstrapping as branch support.
FIGURE 13 in Systematic revision and morphological phylogenetic analysis of Anchylorhynchus Schoenherr, 1836 (Coleoptera, Curculionidae: Derelomini)
FIGURE 13. Habitus of species of Anchylorhynchus (continued). Scales: 1 mm. A–D A. tremolerasi. E A. tricarinatus. F A. vanini (male). G A. vanini (female). H A. variabilis (male). I–L A. variabilis (female).
FIGURE 24 in Systematic revision and morphological phylogenetic analysis of Anchylorhynchus Schoenherr, 1836 (Coleoptera, Curculionidae: Derelomini)
FIGURE 24. Geographical distribution of species of Anchylorhynchus based on specimens examined, excluding suspicious locations as indicated in the main text. The distribution of A. parcus is unknown. A A. aegrotus, A. albidus, A. amazonicus, A. centrosquamatus. B A. bicarinatus, A. bicolor, A. burmeisteri, A. rectus. C A. bucki, A. goiano, A. imitator, A. luteobrunneus. D A. camposi, A. minimus, A. multisquamis, A. tremolerasi. E A. latipes, A. pinocchio, A. trapezicollis, A. vittipennis. F A. chrysomeloides, A. tricarinatus, A. vanini, A. variabilis.
FIGURE 12 in Systematic revision and morphological phylogenetic analysis of Anchylorhynchus Schoenherr, 1836 (Coleoptera, Curculionidae: Derelomini)
FIGURE 12. Habitus of species of Anchylorhynchus (continued). Some images are mirrored in relation to originals. Scales: 1 mm. A A. multisquamis. B A. pinocchio (male). C A. pinocchio (female). D A. parcus (male holotype). Photographed by Johannes Bergsten © 2017 Naturhistoriska riksmuseet. Background removed from original photo, light levels and contrast adjusted. Made available by the Swedish Museum of Natural History under CC-BY 4.0 international license. E A. rectus. F A. trapezicollis. G–L A. tremolerasi.
FIGURE 8 in Systematic revision and morphological phylogenetic analysis of Anchylorhynchus Schoenherr, 1836 (Coleoptera, Curculionidae: Derelomini)
FIGURE 8. Prothorax of all Anchylorhynchus species. Except for A. parcus, only known from the male holotype, the thorax of a male (left) and a female (right) are shown for each species. Arrows show the direction of scales in each position. Scale: 500 µm. A A. aegrotus. B A. albidus. C A. amazonicus. D A. bicarinatus. E A. bicolor. F A. bucki. G A. burmeisteri. H A. camposi. I A. centrosquamatus (from de Medeiros & Núñez-Avellaneda 2013). J A. chrysomeloides. K A. goiano. L A. imitator. M A. latipes. N A. luteobrunneus (from de Medeiros & Núñez-Avellaneda 2013). O A. minimus. P A. multisquamis. Q A. parcus. R A. pinocchio (from de Medeiros & Núñez-Avellaneda 2013). S A. rectus. T A. trapezicollis U A. tremolerasi V A. tricarinatus W A. vanini X A. variabilis Y A. vittipennis.
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These curated guides explain access requirements, typical timelines, costs, and reuse considerations for widely used research datasets.
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.