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1,416 results for “Evidence Base”
FIGURE 2 in A new species of Neoconidiobolus (Entomophthorales, Ancylistaceae) from China based on morphological, molecular and physiological evidences
FIGURE 2. Neoconidiobolus pseudothromboides sp. nov. RCEF 6692. A, Colony on PDA after 3 d at 21 ˚C; b, Mycelia rarely branched at the edge; c, Mycelia septate and distended like a block; d, e,f, Single primary conidiophores bearing a primary conidium; g, h, Primary conidia with small basal papilla; i, j, Secondary conidia producing from primary ones; k, Zygospores formed between segments of the same hyphae; l, Young zygospores; m, Mature zygospores. — Scale bars: a = 10 mm; b = 100 μm; c–m = 20 μm.
FIGURE 1 in A new species of Neoconidiobolus (Entomophthorales, Ancylistaceae) from China based on morphological, molecular and physiological evidences
FIGURE 1. Maximum Likelihood phylogenetic tree of Neoconidiobolus based on nucLSU, mtSSU and EFL sequences. Eight species in related genera (Azygosporus, Capillidium, Conidiobolus and Microconidiobolus) are chosen as outgroups. Maximum Parsimony bootstrap values (≧70%) / Maximum Likelihood bootstrap values (≧70%) / Bayesian Inference posterior probabilities (≧0.95) of each clade are indicated along branches. Neoconidiobolus pseudothromboides sp. nov. is shown in bold. Scale bar indicates substitutions per site.
Elemental bioimaging and transcriptomics – no evidence of altered gene expression after single injection of Gadolinium-based contrast agents in mice cerebellum
<p>single read RNA data for GBCA study</p>
FIGURE 3 in A new species and new records of Phlegmacium (Cortinariaceae) from China based on molecular and morphological evidence
FIGURE 3. (Continued) The basidiospores and pileipellis of P. paracephalixum: E1–4. HKAS92058; P. patrickense: F1–4. HKAS124259; P. violaceorubens: G1–4. HKAS124254.
FIGURE 3 in A new species and new records of Phlegmacium (Cortinariaceae) from China based on molecular and morphological evidence
FIGURE 3. The basidiospores and pileipellis of P. ochraceosquamosum: A1–4. HKAS124256 (holotype); P. caesiocolor: B1–4. HKAS67872; P. glaucopus: C1–4. HKAS124253; P. kytoevuorii: D1–4. HKAS124252. (continued on the next page)
FIGURE 2 in A new species and new records of Phlegmacium (Cortinariaceae) from China based on molecular and morphological evidence
FIGURE 2. Basidiomata of P. ochraceosquamosum: A1–2. HKAS124256 (holotype); P. caesiocolor: B. HKAS67872; P. glaucopus: C. HKAS124253; P. kytoevuorii: D. HKAS124252; P. paracephalixum: E. HKAS92058; P. patrickense: F. HKAS124259; P. violaceorubens: G. HKAS124254. Bars = 10 mm. Photos by Jian-Wei Liu (A1–2), Qing Cai (B, E), Geng-Shen Wang (C–D), Li-Rong Liu (F), Liu-Kun Jia (G).
FIGURE 1 in A new species and new records of Phlegmacium (Cortinariaceae) from China based on molecular and morphological evidence
FIGURE 1. Maximum-Likelihood phylogenetic tree inferred from the ITS dataset. Bootstrap values equal to or greater than 50% and Bayesian posterior probabilities equal to or greater than 0.95 are shown along the branches. Sequences generated in this study are in blue bold face.
Replication package for ESEC/FSE'23 Submission of "Data-Driven Evidence-Based Syntactic Sugar Design"
<p>All scripts and data utilized to perform the actions described in the submission of "Data-Driven Evidence-Based Syntactic Sugar Design".</p>
Replication package for "Data-Driven Evidence-Based Syntactic Sugar Design"
<p>The data and scripts utilized to perform the actions described in the submission for "Data-Driven Evidence-Based Syntactic Sugar Design".</p>
Figure 15 in The monophyly of Crenuchinae and description of two new species of Poecilocharax (Teleostei: Crenuchidae) based on phenotypic and genotypic evidence
Figure 15. Igarapé Mutum, tributary of Rio Juma, Rio Aripuanã Basin, Apuí, Amazonas, Brazil, type-locality of Poecilocharax rhizophilus sp. nov. Inset details the microenvironment where P. rhizophilus sp. nov. was captured.
Figure 12 in The monophyly of Crenuchinae and description of two new species of Poecilocharax (Teleostei: Crenuchidae) based on phenotypic and genotypic evidence
Figure 12. Poecilocharax rhizophilus sp. nov.: A, holotype, male, 20.3 mm SL, MZUSP 121652; B, paratype, male, 23.1 mm SL, MZUSP 121651; C, paratype, female, 23.3 mm SL, MZUSP 121651.
Figure 10 in The monophyly of Crenuchinae and description of two new species of Poecilocharax (Teleostei: Crenuchidae) based on phenotypic and genotypic evidence
Figure 10. Type-locality (red square) of Poecilocharax callipterus sp. nov. and P. rhizophilus sp. nov. (blue dot), tributary of the Rio Juma, Rio Aripuanã drainage, Rio Madeira Basin, Apuí, Amazonas, Brazil.
Figure 8 in The monophyly of Crenuchinae and description of two new species of Poecilocharax (Teleostei: Crenuchidae) based on phenotypic and genotypic evidence
Figure 8. Superficial neuromasts (white arrows) on lateral body scales of Poecilocharax callipterus sp. nov., MZUSP 117568, paratype, 29.4 mm SL.
Figure 7 in The monophyly of Crenuchinae and description of two new species of Poecilocharax (Teleostei: Crenuchidae) based on phenotypic and genotypic evidence
Figure 7. Poecilocharax callipterus sp. nov., lateral line with a single perforated scale, MZUSP 117568, paratype, 27.5 mm SL.
Figure 4 in The monophyly of Crenuchinae and description of two new species of Poecilocharax (Teleostei: Crenuchidae) based on phenotypic and genotypic evidence
Figure 4. SEM photograph of the of neurocranium of Poecilocharax callipterus sp. nov. in frontal view, paratype, male, 28.1 mm SL. Epiphyseal branch of the supraorbital laterosensory canal (EP), foramina (FO), frontal bone (FR), mesethmoid (ME) and parietal branch of supraorbital laterosensory canal (P).
Figure 3 in The monophyly of Crenuchinae and description of two new species of Poecilocharax (Teleostei: Crenuchidae) based on phenotypic and genotypic evidence
Figure 3. Poecilocharax callipterus sp. nov.: A, holotype, male, 30.9 mm SL, MZUSP 121653; B, paratype, female, 27.7 mm SL, MZUSP 117568.
Figure 11 in The monophyly of Crenuchinae and description of two new species of Poecilocharax (Teleostei: Crenuchidae) based on phenotypic and genotypic evidence
Figure 11. Tributary of Rio Canadá, Rio Juma drainage, Rio Aripuanã Basin, Apuí, Amazonas, Brazil, type-locality of Poecilocharax callipterus sp. nov. In detail the microenvironment where P. callipterus sp. nov. was captured.
Figure 2 in The monophyly of Crenuchinae and description of two new species of Poecilocharax (Teleostei: Crenuchidae) based on phenotypic and genotypic evidence
Figure 2. Results from ABGD analysis on Crenuchinae data shown in the IB topology. Analyses were run with a minimum slope increase (X) of 1.0. Distances were calculated based on the Kimura 2-parameter (K80) model. Graphs indicate the histogram of distances (right, above) and ranked distances (right, below).
Figure 1 in The monophyly of Crenuchinae and description of two new species of Poecilocharax (Teleostei: Crenuchidae) based on phenotypic and genotypic evidence
Figure 1. Abbreviated phylogenetic trees of Crenuchidae obtained in this study based on mitochondrial gene cytochrome c oxidase subunit I (COI, 666 bp), indicating the monophyly of Crenuchinae (highlighted) and the relationships among its representatives. A, Bayesian tree, numbers at branches are posterior probabilities; B, maximum likelihood tree, numbers at branches are bootstrap values. Values below 75% (-) are not shown.
Figure 6 in The monophyly of Crenuchinae and description of two new species of Poecilocharax (Teleostei: Crenuchidae) based on phenotypic and genotypic evidence
Figure 6. Poecilocharax callipterus sp. nov., left medial view of premaxilla, maxilla and dentary, MZUSP 117568, paratype, male, 28.1 mm SL.
ScienceDex guides
Understand access before you commit
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.