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13,397 results for “sp. nov.”
FIGURE 1 in Bioluminescent fungus Roridomyces viridiluminus sp. nov. and the first Chinese record of the genus Roridomyces, from Southwestern China
FIGURE 1. Roridomyces viridiluminus (HKAS109712, isotype). a–f Side-by-side photographs of fruiting bodies and mycelium in light and darkness, displaying bright green luminescent properties. Scale bars: 4 mm (a–b); 2 mm (c–f). Photographs were taken with Nikon D5100, 35mm, f/1.8, ISO 4000, 2-minute exposure.
FIGURE 3 in Bioluminescent fungus Roridomyces viridiluminus sp. nov. and the first Chinese record of the genus Roridomyces, from Southwestern China
FIGURE 3. Maximum Likelihood tree generated using RAxML based on ITS sequence. MLBS Bootstrap support values for maximum likelihood (≥60%) and posterior probabilities values (PP) for BI (≥0.9) are given above or below each branch. The new species is in red bold. The tree is rooted to Tricholoma sinoacerbum (GDGM44680) and T. terreum (HKAS 53017).
FIGURE 4 in Bioluminescent fungus Roridomyces viridiluminus sp. nov. and the first Chinese record of the genus Roridomyces, from Southwestern China
FIGURE 4. Maximum Likelihood tree generated using RAxML based on LSU sequence. MLBS Bootstrap support values for maximum likelihood (≥60%) and posterior probabilities values (PP) for BI (≥0.9) are given above or below each branch. The new species is in red bold. The tree is rooted to Tricholoma sinoacerbum (GDGM44680) and T. terreum (HKAS 53017).
FIGURE 1 in Pseudopestalotiopsis gilvanii sp. nov. and Neopestalotiopsis formicarum leaves spot pathogens from guarana plant: a new threat to global tropical hosts
FIGURE 1. Phylogenetic relationship in Pseudopestalotiopsis inferred with concatenated sequences of ITS, tub2 and tef1-α, showing the placement Pseudopestalotiopsis gilvanii. The tree topology was generated by the ML analysis and bootstrap values for maximum parsimony (MP), maximum likelihood (ML), and posterior probability (PP) analyses are presented at the branches (MP/ML/PP). Isolates from this study are highlighted in blue.
FIGURE 4 in Pseudopestalotiopsis gilvanii sp. nov. and Neopestalotiopsis formicarum leaves spot pathogens from guarana plant: a new threat to global tropical hosts
FIGURE 4. Nucleotides differences in the ITS, tef1-α and tub2 sequences of Pseudopestalotiopsis gilvanii and closely related species. Ten nucleotides up and downstream to the nucleotide variation are in light green.
FIGURE 3 in Pseudopestalotiopsis gilvanii sp. nov. and Neopestalotiopsis formicarum leaves spot pathogens from guarana plant: a new threat to global tropical hosts
FIGURE 3. Pseudopestalotiopsis gilvanii (strain INPA 2913), aspects of colonies in PDA (A), aspects of conidia (B) and scanning electron microscopy of conidia (C). Neopestalotiopsis formicarum (strain INPA 2916), aspects of colonies in PDA (D), aspects of conidia (E) and scanning electron microscopy of conidia (F).
FIGURE 2 in Pseudopestalotiopsis gilvanii sp. nov. and Neopestalotiopsis formicarum leaves spot pathogens from guarana plant: a new threat to global tropical hosts
FIGURE 2. Phylogenetic relationship in Neopestalotiopsis inferred with concatenated sequences of ITS, tub2 and tef1- α. The tree topology was generated by the ML analysis and bootstrap values for maximum parsimony (MP), maximum likelihood (ML), and posterior probability (PP) analyses are presented at the branches (MP/ML/PP). Isolates from this study are highlighted in yellow.
FIGURE 6 in Pseudopestalotiopsis gilvanii sp. nov. and Neopestalotiopsis formicarum leaves spot pathogens from guarana plant: a new threat to global tropical hosts
FIGURE 6. Leaf spot symptoms on tropical plants inoculated with Pseudopestalotiopsis gilvanii and Neopestalotiopsis formicarum, under greenhouse conditions. Presence of symptoms noticed on açaí palms (Euterpe oleraceae and E. precatoria), oil palm (Elaeis guineenses). Banana (Musa paradisiaca) displayed symptoms for N. formicarum but not for Ps. gilvanii. Absence of symptoms on rubber trees (Hevea brasiliensis). Uninoculated plants were employed as control.
FIGURE 1. a in Planothidium marganaiensis sp. nov. (Bacillariophyta), a new cavum-bearing species from a karst spring in south-western Sardinia (Italy)
FIGURE 1. a) Geographic location of the San Giovanni spring (San Giovanni karst system), b) south entrance of the San Giovanni cave, c) water abstraction system, d) San Giovanni spring.
FIGURES 2–57 in Planothidium marganaiensis sp. nov. (Bacillariophyta), a new cavum-bearing species from a karst spring in south-western Sardinia (Italy)
FIGURES 2–57. LM. Planothidium marganaiensis G.G.Lai, Ector & C.E.Wetzel sp. nov. Type population from the San Giovanni spring, Sardinia (Italy). Figs 2–28: Rapheless valve (SV) with cavum. Figs 29–32: Girdle views. Figs 33–57: Raphe valve (RV) with shortened striae in the central area.
FIGURES 58–65. SEM. Planothidium marganaiensis G.G in Planothidium marganaiensis sp. nov. (Bacillariophyta), a new cavum-bearing species from a karst spring in south-western Sardinia (Italy)
FIGURES 58–65. SEM. Planothidium marganaiensis G.G.Lai, Ector & C.E.Wetzel sp. nov. Type population from the San Giovanni spring, Sardinia (Italy). Figs 58–62: Rapheless valve (SV). Figs 58–60: External view showing depressions along the apical axis and multiseriate striae. Note the striae continuing shortly onto the valve mantle, without interruption (Figs 58–59). Figs 61–62: Internal view showing the round cavum with a narrow aperture towards the valve mantle. Figs 63–65: Raphe valve (RV). Fig. 63: External view showing multiseriate striae not extended on the valve mantle and distal raphe ends bent unilaterally. Figs 64–65: Internal view showing striae sunken between raised virgae and composed of areolae covered by individual hymenes. Note the proximal external raphe ends slightly deflected into opposite sides and distal raphe terminating on poorly developed helictoglossae, continuing shortly onto the valve mantle.
FIGURE 2 in The taxonomy and phylogeny of Austropleospora ochracea sp. nov. (Didymosphaeriaceae) from Guizhou, China
FIGURE 2. Austropleospora ochracea (HMAS 248367, holotype). a, b. Ascomata on host substrate, c, d. Vertical sections of ascomata, e. Peridium, f. Pseudoparaphyses, g−j. Asci, k−n. Ascospores, o. Germinating ascospore, p. Culture on PDA from above. Scale bars: c, d = 100 µm, e = 10 µm, f = 4 µm, g−j = 20 µm, k−o = 5 µm.
FIGURE 2. Prillieuxina aporosae. A in Prillieuxina aporosae sp. nov. (Asterinales, Asterinaceae) from southern Western Ghats, India
FIGURE 2. Prillieuxina aporosae. A. Abaxial side of infected leaves. B. Surface mycelium and mature, open thyriothecia. C. Ascoma initials and mature ascospore. D. Ascoma initial and germinating ascospore. Photographs by G.N. Gokul.
FIGURE 1. Prillieuxina aporosae. A. Mature thyriothecium. B. Surface mycelium and ascoma initials. C in Prillieuxina aporosae sp. nov. (Asterinales, Asterinaceae) from southern Western Ghats, India
FIGURE 1. Prillieuxina aporosae. A. Mature thyriothecium. B. Surface mycelium and ascoma initials. C. Mature ascospores. Illustration by G.N. Gokul.
FIGURE 1 in Absidia aguabelensis sp. nov.: A new mucoralean fungi isolated from a semiarid region in Brazil
FIGURE 1. Phylogenetic tree of Absidia aguabelensis URM 8213 and related species based on maximum likelihood (ML) analysis of combined internal transcriber spacer and large subunit of ribosomal DNA. Bootstrap values for Bayesian posterior probabilities over 0.9 and ML greater than or equal to 70% are placed above the branches. Bootstrap values lower than 0.9 and ML less than 70% are marked with "*". The bar indicates the number of substitutions per position. The strain proposed in the current study is shown in bold blue. Cunninghamella phaeospora CBS 692.68 and Cunninghamella vesiculosa CBS 989.96 were used as outgroups.
FIGURE 2 in Absidia aguabelensis sp. nov.: A new mucoralean fungi isolated from a semiarid region in Brazil
FIGURE 2. Absidia aguabelensis sp. nov. (URM 8213). A. Surface of colony on malt extract agar at 25°C. B. Young sporangiophore with sporangium. C. Mature sporangiophores with sporangium, columella, and a bell-shaped apophysis. D, E. Branched sporangiophore; F, G, H, I. Sporangiophore with columella; J. Sporangiospores. Bars: B, C, J = 25 μm; D, E = 50 μm; F, G, H, I = 12.5 μm.
FIGURE 1 in Alloleptosphaeria shangrilana sp. nov. and first report of the genus (Leptosphaeriaceae, Dothideomycetes) from China
FIGURE 1. RAxML tree based on analyses of combined SSU, LSU and ITS partial sequence data. Bootstrap support values for ML equal or greater than 65%, and Bayesian posterior probabilities (BP) equal or greater than 0.95 are given as ML/BP above the nodes. All ex-type strains are displayed in bold and the new species from this study is in blue bold. The tree is rooted to Didymella aeria (LC: 7441), D. exigua (CBS 183.55) and D. maydis (CBS 588.69) following Phukhamsakda et al. (2020).
FIGURE 2 in Alloleptosphaeria shangrilana sp. nov. and first report of the genus (Leptosphaeriaceae, Dothideomycetes) from China
FIGURE 2. Alloleptosphaeria shangrilana (holotype, HKAS: 112210). A, B. Ascomata on host substrate. C, D. Cross sections of ascomata. E, F. Vertical sections of ascomata. G. Peridium. H. Pseudoparaphyses. I–K. Asci. L. Ascus apex. M–U. Ascospores. Scale bars: B–D = 500 µm, E, F = 100 µm, G = 50 µm, H, L = 5 µm, I–K = 50 µm, M–U = 20 µm.
FIGURE 1 in Acrocordiella yunnanensis sp. nov. (Requienellaceae, Xylariales) from Yunnan, China
FIGURE 1. RAxML tree based on a combined dataset of partial LSU and ITS sequence analyses. Bootstrap support values for ML equal to or greater than 60 %, Bayesian posterior probabilities (BYPP) equal to or greater than 0.95 are shown as ML/ BYPP above the nodes. Type strains are in black bold and the new isolates are in red bold. The tree is rooted to Chaetosphaeria innumera (SMH2748). The scale bar represents the expected number of nucleotide substitutions per site.
FIGURE 2 in Acrocordiella yunnanensis sp. nov. (Requienellaceae, Xylariales) from Yunnan, China
FIGURE 2. Acrocordiella yunnanensis (HKAS111922, holotype). a, b. Ascomata on host substrate c. Transverse section of an ascoma. d, e. Vertical sections of ascomata. f. Peridium g. Ostiolar neck. h. Paraphyses. i–o. Asci (j. in Melzer's solution). p–t. Ascospores (t. in Indian ink). Scale bars: e = 100 μm, g, i, j. = 20 μm, k–o. = 50 μm, h, p–s. = 10 μm, t–f. = 5 μm.
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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)
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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.