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PLATE 3. Basidiocarps representing sect. Marasmius subsect. Sicciformes a in Biodiversity and phylogeny of Marasmius (Agaricales, Basidiomycota) from Madagascar
PLATE 3. Basidiocarps representing sect. Marasmius subsect. Sicciformes a) Marasmius brunneoaurantiacus (JES 113) b) Marasmius crinisequi (JES 176) c) Marasmius cf. subruforotula (JES 186). Scale bar = 10 mm. Photography by D.S. Newman.
PLATE 1. Basidiocarps representing sect. Marasmius subsect. Marasmius a in Biodiversity and phylogeny of Marasmius (Agaricales, Basidiomycota) from Madagascar
PLATE 1. Basidiocarps representing sect. Marasmius subsect. Marasmius a) Marasmius rotalis (JES 154) b) Marasmius apatelius (JES 203) c) Marasmius somalomoensis (JES 129). Scale bar = 5 mm (a); = 10 mm (b, c). Photography by D.S. Newman.
PLATE 5. Basidiocarps representing sect. Sicci ser. Spinulosi a in Biodiversity and phylogeny of Marasmius (Agaricales, Basidiomycota) from Madagascar
PLATE 5. Basidiocarps representing sect. Sicci ser. Spinulosi a) Marasmius dendrosetosus (JES 205) b) Marasmius nummularius (JES 124). Scale bar = 10 mm. Photography by D.S. Newman.
PLATE 7. Basidiocarps representing sect. Sicci ser. Leonini a in Biodiversity and phylogeny of Marasmius (Agaricales, Basidiomycota) from Madagascar
PLATE 7. Basidiocarps representing sect. Sicci ser. Leonini a) Marasmius megistus (JES 163) b) Marasmius megistus (Lockwood 2132155), photo generously donated by Taylor Lockwood, c) Marasmius bambusiniformis (JES 199). Scale bar = 10 mm (a, c); 5 mm (b). Photography by D.S. Newman.
FIGURE 2. Triplostegia glandulifera. Representative specimens from Papua New Guinea. A, B in Taxonomic revision of Triplostegia (Caprifoliaceae: Dipsacales)
FIGURE 2. Triplostegia glandulifera. Representative specimens from Papua New Guinea. A, B: Leaves. C: Stem indumentum. D–F: Inflorescence, floral bracts, epicalyx and flowers. Vouchers: A, C, D: R.D. Hoogland & R. Schodde 7507; B: R.D. Hoogland 9706; E, F: R.D. Hoogland 7902 (all CANB).
FIGURE 2. Thismia bokorensis. A. Flowering plant. B in Flora of Bokor National Park VII: Thismia bokorensis (Burmanniaceae), a new species representing a new generic record
FIGURE 2. Thismia bokorensis. A. Flowering plant. B. Longitudinal section of flower. C. Flower, upper view. D. Stamen with apical lobes, inner view. E. Stamen with lateral appendage, glands and thecae, outer view. F. Style and stigma, upper view (above) and lateral view (below). G. Immature fruit. Materials from Tagane et al. 5857 (TNS). Drawn by Kumi Hamasaki. Bars = 10 mm (A), 5 mm (B–C), 1 mm (D–F) and 2 mm (G).
Figure 12. Slit-like cuticular pores representing epidermal gland openings. A, B in An extensive review of mutualistic and similar ecological associations involving tarantulas (Araneae: Theraphosidae), with a new hypothesis on the evolution of their hirsuteness
Figure 12. Slit-like cuticular pores representing epidermal gland openings. A, B. Ephebopus cyanognathus West and Marshall, 2000, palpal femur, with urticating setae and one gland opening (marked with an arrow). C, D. Exuvia of juvenile Ephebopus cyanognathus, abdomen. E. Psalmopoeus sp., dorsal side of metatarsus. F. Liphistius sp., a slit sensillum (large) and several gland openings (small, one marked with an arrow). Photo credits: Rainer Foelix. Scale bars: 0.01 mm.
FIGURE 7. Variability range for the chosen quantitative characters. Points indicate a median value, boxes represent 5 and 95 in A revision of taxonomic relation between Oenothera royfraseri and O. turoviensis (sect. Oenothera, subsect. Oenothera; Onagraceae) based on multivariate analyses of morphological characters
FIGURE 7. Variability range for the chosen quantitative characters. Points indicate a median value, boxes represent 5 and 95 percentile, whiskers around the boxes refer to 1 and 99 percentile; B – O. biennis, P – O. perangusta, R – O. royfraseri (including the specimens labelled as O. turoviensis, except the original material of the latter), T – O. turoviensis (the original material only).
FIGURE 7 in Seed micromorphology of representatives of holoparasitic Orobanchaceae genera from the Caucasus region and its taxonomic significance
FIGURE 7. Cluster analysis (unweighted pair group method with arithmetic mean, UPGMA, method of classification and Gower's general similarity coefficient) performed on 22 quantitative or qualitative characters of seeds.
FIGURE 3 in Seed micromorphology of representatives of holoparasitic Orobanchaceae genera from the Caucasus region and its taxonomic significance
FIGURE 3. Scanning electron micrographs of selected Orobanchaceae seeds. A–C: Orobanche kurdica. D–F: O. schelkovnikovii. G–I: O. zajaciorum. J–L: O. raddeana. M–O: O. laxissima. Scale bars: 10 μm (B, C, E–L, N, O), 100 μm (A, D, M).
FIGURE 5 in Seed micromorphology of representatives of holoparasitic Orobanchaceae genera from the Caucasus region and its taxonomic significance
FIGURE 5. Scanning electron micrographs of selected Orobanchaceae seeds. A–C: Phelipanche sevanensis. D–F: P. heldreichii. G–I: P. libanotica. J–L: P. cilicica. M–O: P. bungeana. Scale bars: 10 μm (B, C, E–I, K, L, N, O), 100 μm (A, D, J, M).
FIGURE 8 in Seed micromorphology of representatives of holoparasitic Orobanchaceae genera from the Caucasus region and its taxonomic significance
FIGURE 8. Box and whisker plots of selected macro- and micro-morphological characters of Orobanchaceae seeds. Points indicate the mean values (open square), boxes represent 25 and 75% percentiles, and range (whiskers) represents 1 and 99% percentiles. Numbers indicated examined species (see Table 2).
FIGURE 6 in Seed micromorphology of representatives of holoparasitic Orobanchaceae genera from the Caucasus region and its taxonomic significance
FIGURE 6. Confocal laser scanning micrographs of selected Orobanchaceae seeds. A: Cistanche armena. B: Diphelypaea coccinea. C: D. tournefortii. D: Orobanche cernua. E: O. zajaciorum. F: O. schelkovnikovii. G: O. colorata. H–I: O. coerulescens. J: Phelipanche cernua. K: P. libanotica. L: P. purpurea. Scale bar: 50 μm.
FIGURE 4 in Seed micromorphology of representatives of holoparasitic Orobanchaceae genera from the Caucasus region and its taxonomic significance
FIGURE 4. Scanning electron micrographs of selected Orobanchaceae seeds. A–C: Orobanche inulae. D–F: O. cicerbitae. G–I: O. gamosepala. J–L: O. colorata. M–O: O. coerulescens. Scale bars: 10 μm (B, C, E–I, K, L, N, O), 100 μm (A, D, J, M).
FIGURE 2 in Seed micromorphology of representatives of holoparasitic Orobanchaceae genera from the Caucasus region and its taxonomic significance
FIGURE 2. Scanning electron micrographs of selected Orobanchaceae seeds. A–C: Cistanche armena. D–F: C. salsa. G–I: Diphelypaea coccinea. J–L: D. tournefortii. Scale bars: 10 μm (B, C, E–L), 100 μm (A, D).
FIGURE 1 in Seed micromorphology of representatives of holoparasitic Orobanchaceae genera from the Caucasus region and its taxonomic significance
FIGURE 1. ZOOM micrographs of selected Orobanchaceae seeds. A, D–F: Cistanche armena. B, G–J: Diphelypaea coccinea. K: Orobanche schelkovnikovii. L: O. coerulescens. M: O. zajaciorum. N: Phelipanche cernua. O: P. libanotica. P: P. purpurea. Scale bars: 200 μm (A, B, C), 100 μm (the rest).
APPENDIX III. Bayesian inference topology of COI gene with posterior probability values. Numbers at the nodes represent posterior probability support, other nodes with red circles has> 95%. Terminals with locality specification are species prior for understand the description of I. crassa sp. nov. (★). in A new species of Ischnocnema (Anura: Brachycephalidae) from the mountainous region of Atlantic Forest, southeastern Brazil, with a new phylogeny and diagnose for Ischnocnema parva series
APPENDIX III. Bayesian inference topology of COI gene with posterior probability values. Numbers at the nodes represent posterior probability support, other nodes with red circles has> 95%. Terminals with locality specification are species prior for understand the description of I. crassa sp. nov. (★).
CAMI2 Challenge - Human Microbiome Project Toy Database - sample 19 - regenerated using recent RefSeq representative genomes
Open the record for dataset details and reuse information.
Data from: Computer simulations show that Neanderthal facial morphology represents adaptation to cold and high energy demands, but not heavy biting
Three adaptive hypotheses have been forwarded to explain the distinctive Neanderthal face: 1) an improved ability to accommodate high anterior bite forces, 2) more effective conditioning of cold and/or dry air, and, 3) adaptation to facilitate greater ventilatory demands. We test these hypotheses using three-dimensional models of Neanderthals, modern humans, and a close outgroup (H. heidelbergensis), applying finite element analysis (FEA) and computational fluid dynamics (CFD). This is the most comprehensive application of either approach applied to date and the first to include both. FEA reveals few differences between H. heidelbergensis, modern humans and Neanderthals in their capacities to sustain high anterior tooth loadings. CFD shows that the nasal cavities of Neanderthals and especially modern humans condition air more efficiently than does that of H. heidelbergensis, suggesting that both evolved to better withstand cold and/or dry climates than less derived Homo. We further find that Neanderthals could move considerably more air through the nasal pathway than could H. heidelbergensis or modern humans, consistent with the propositions that, relative to our outgroup Homo, Neanderthal facial morphology evolved to reflect improved capacities to better condition cold, dry air, and, to move greater air volumes in response to higher energetic requirements.
Figure 19. Pseudocrangonyx camtschaticus Birstein, 1955, 11 in New species and records of the subterranean amphipod genus Pseudocrangonyx Akatsuka and Komai (Crustacea: Pseudocrangonyctidae), representing the northernmost distribution of the group
Figure 19. Pseudocrangonyx camtschaticus Birstein, 1955, 11/11-DAS, female, 7.5 mm: (a) gnathopod I; (b) gnathopod II. Scale bar: 0.2 mm.
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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.