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Figure 19 in New data on the crabronid fauna of Saudi Arabia (Hymenoptera: Apoidea (Spheciformes): Crabronidae) from Jazan Province, with the description of three new species and the hitherto unknown male of Miscophus chrysis Kohl, 1894
Figure 19. Bembix lusca Spinola (male). (a) Frontal view of head (labrum with black median band indicated); (b) Thorax and gaster (dorsal view); (c) Fore leg (metatarsal rake indicated); (d) Ventral view of thorax and gaster (median carina of S2 indicated); (e) Male genitalia; (f) Last gastral sterna.
Figure 7 in New data on the crabronid fauna of Saudi Arabia (Hymenoptera: Apoidea (Spheciformes): Crabronidae) from Jazan Province, with the description of three new species and the hitherto unknown male of Miscophus chrysis Kohl, 1894
Figure 7. Oxybelus spp.: (a) Oxybelus diphyllus A. Costa (male) Dorsal view of thorax and gaster; (b, c) Oxybelus phyllophorus Kohl (female): (b) Dorsal habitus; (c) Frontal view of head; (d, e) Oxybelus tinklyi Guichard (female): (d) Dorsal habitus; (e) Frontal view of head.
Figure 13 in New data on the crabronid fauna of Saudi Arabia (Hymenoptera: Apoidea (Spheciformes): Crabronidae) from Jazan Province, with the description of three new species and the hitherto unknown male of Miscophus chrysis Kohl, 1894
Figure 13. Tachysphex erythropus (Spinola) (female): (a) Fore wing; (b) Hind wing (oblique cu-a indicated); (c) Latero-ventral view of S1 (longitudinal carina indicated); (d) Epipygium.
Figure 14 in New data on the crabronid fauna of Saudi Arabia (Hymenoptera: Apoidea (Spheciformes): Crabronidae) from Jazan Province, with the description of three new species and the hitherto unknown male of Miscophus chrysis Kohl, 1894
Figure 14. Tachytes xenoferus Rohwer (female): (a) Lateral habitus; (b) Fronto-lateral view of head; (c) Dorsal view of thorax (part); (d) Middle tarsus (part) (apical protrution of metatarsus indicated); (e) Basal gastral sterna (apico-central impunctate area of S2 indicated).
FIGURE. Median network analyses (MNA) of a subset of the C. trilobus aggregate (i.e. those in the clade A from Fig. 11) based on concatenated DNA sequence data from ITS, trnL-trnF and psbJ-petA. Stars and arrow indicate accessions discussed in the text. NI: North Island, SI: South Island. in Five new species of Corybas (Diurideae, Orchidaceae) endemic to New Zealand and phylogeny of the Nematoceras clade
FIGURE. Median network analyses (MNA) of a subset of the C. trilobus aggregate (i.e. those in the clade A from Fig. 11) based on concatenated DNA sequence data from ITS, trnL-trnF and psbJ-petA. Stars and arrow indicate accessions discussed in the text. NI: North Island, SI: South Island.
FIGURE. Bayesian tree of New Zealand spider orchids (Corybas) based on DNA sequence data from ITS, trnL-trnF and psbJ-petA. Major clades are indicated by open bars and capital letters, members of the C. trilobus aggregate are shaded, and posterior probabilities/ bootstrap percentages (≥50) indicated by numbers near each node. NI: North Island, SI: South Island, MCQI: Macquarie Island, CHI: Chatham Island in Five new species of Corybas (Diurideae, Orchidaceae) endemic to New Zealand and phylogeny of the Nematoceras clade
FIGURE. Bayesian tree of New Zealand spider orchids (Corybas) based on DNA sequence data from ITS, trnL-trnF and psbJ-petA. Major clades are indicated by open bars and capital letters, members of the C. trilobus aggregate are shaded, and posterior probabilities/ bootstrap percentages (≥50) indicated by numbers near each node. NI: North Island, SI: South Island, MCQI: Macquarie Island, CHI: Chatham Island
16S V4 raw read count data; 16S reads metadata; new MHC class II allele sequences
<p>Pathogen-mediated selection at the major histocompatibility complex (MHC) is thought to promote MHC-based mate choice in vertebrates. Mounting evidence implicates odour in conveying MHC genotype, but the underlying mechanisms remain uncertain. MHC effects on odour may be mediated by odour-producing symbiotic microbes whose community structure is shaped by MHC genotype. In birds, preen oil is the primary source of body odour and similarity at MHC predicts similarity in preen oil composition. Hypothesizing that this relationship is mediated by symbiotic microbes, we characterized MHC genotype, preen gland microbial communities, and preen oil chemistry of song sparrows (<i>Melospiza melodia</i>). Consistent with the microbial mediation hypothesis, pairwise similarity at MHC predicted similarity in preen gland microbiota. Overall microbial similarity did not predict chemical similarity of preen oil, counter to this hypothesis. However, permutation testing identified a maximally predictive set of microbial taxa that best reflect MHC genotype, and another set of taxa that best predict preen oil chemical composition. The relative strengths of relationships between MHC and microbes, microbes and preen oil, and MHC and preen oil suggest that MHC may affect host odour both directly and indirectly. Thus, birds may assess MHC genotypes based on both host-associated and microbially-mediated odours.</p>
FIGURE. Phylogram of Panus generated from Maximum likelihood analysis of ITS sequence data. Lentinus crinitus (MK408650) was selected as the outgroup taxon. Maximum likelihood bootstrap values greater than 60% are indicated above the nodes. The new record Panus similis (HKAS 121668) is in black bold. in Yunnan-Guizhou Plateau: a mycological hotspot
FIGURE. Phylogram of Panus generated from Maximum likelihood analysis of ITS sequence data. Lentinus crinitus (MK408650) was selected as the outgroup taxon. Maximum likelihood bootstrap values greater than 60% are indicated above the nodes. The new record Panus similis (HKAS 121668) is in black bold.
FIGURES 1–6 in A new quill mite Syringophiloidus pseudonigritae sp. nov. (Prostigmata, Syringophilidae) parasitizing Pseudonigrita arnaudi (Passeriformes, Ploceidae) — a combined description using morphology and DNA barcode data
FIGURES 1–6. Syringophiloidus pseudonigritae sp. nov. Female. 1—dorsal view, 2—ventral view, 3— hypostomal apex, 4 —peritremes, 5—propodonotal setae, 6—an-like setae p' of leg III. Scale bars: 1, 2 = 100 µm; 3, 6 = 50 µm; 4, 5 = 25 µm.
FIGURE 3. Discotylenchus brevicaudatus. A, B in First record of the genus Discotylenchus Siddiqi, 1980 (Nematoda: Tylenchidae) from Iran, with description of one new and data on two known species
FIGURE 3. Discotylenchus brevicaudatus. A, B: Female and male entire body; C: Anterior end in detail; D: Pharyngeal region; E: Male posterior end; F: Female tail.
FIGURE 2. Discotylenchus iranicus n in First record of the genus Discotylenchus Siddiqi, 1980 (Nematoda: Tylenchidae) from Iran, with description of one new and data on two known species
FIGURE 2. Discotylenchus iranicus n. sp. A–D: Morphology of lip region; E: Male posterior end; F: Bursa; G: Female tail; H: Part of pharyngeal region (all scale bars = 10 µm).
FIGURE 1. Discotylenchus iranicus n in First record of the genus Discotylenchus Siddiqi, 1980 (Nematoda: Tylenchidae) from Iran, with description of one new and data on two known species
FIGURE 1. Discotylenchus iranicus n. sp. A: Female entire body; B: Male entire body; C: Anterior end in detail; D, E: Male posterior end; F, G: Female tail; H: Pharyngeal region.
FIGURE 5 in First record of the genus Discotylenchus Siddiqi, 1980 (Nematoda: Tylenchidae) from Iran, with description of one new and data on two known species
FIGURE 5. Discotylenchus brevicaudatus (A–E) and Discotylenchus discretus (F–I). A: Anterior end; B: Female tail; C: Male posterior end; D: Bursa; E: Neck region showing bottle shaped terminal bulb; F: Anterior end; G: Vagina and spermatheca; H: Male posterior end; I: Female tail (all scale bars = 10 µm).
FIGURE 4. Discotylenchus discretus. A, B in First record of the genus Discotylenchus Siddiqi, 1980 (Nematoda: Tylenchidae) from Iran, with description of one new and data on two known species
FIGURE 4. Discotylenchus discretus. A, B: Female and male entire body; C: Anterior end in detail; D: Male posterior end; E: Female tail; F: Female pharyngeal region.
FIGURES 76–79. Odontosphaeropyx ruficeps Cameron, 1910 Holotype female. 76 in New data on African Cheloninae (Hymenoptera, Braconidae) show a strong biogeographic signal for taxa with spined propodea
FIGURES 76–79. Odontosphaeropyx ruficeps Cameron, 1910 Holotype female. 76. detail of tarsal claws of mid leg; 77. full imago, lateral and its labels; 78. mesosoma, dorsal; 79; metasoma, dorsal.
FIGURES 54–58. Phanerotomella antennata Granger, 1949 in New data on African Cheloninae (Hymenoptera, Braconidae) show a strong biogeographic signal for taxa with spined propodea
FIGURES 54–58. Phanerotomella antennata Granger, 1949 (specimen from Madagascar, CAS). FIGURES 59–60. Phanerotomella gigantea Granger, 1949 (specimen from Madagascar, CAS).
FIGURES 30–36 in New data on African Cheloninae (Hymenoptera, Braconidae) show a strong biogeographic signal for taxa with spined propodea
FIGURES 30–36. Chelonus (Microchelonus) matilei Braet & Rousse sp. nov., Holotype female. 30. full imago, laterally; 31. head, face; 32. propodeum and metasoma, laterally; 33. apex of metasoma; 34. metasoma, dorsal; 35. mesosoma with spines of propodeum, dorsal; 36. head and anterior part of mesosoma, dorsal.
FIGURES 22–29 in New data on African Cheloninae (Hymenoptera, Braconidae) show a strong biogeographic signal for taxa with spined propodea
FIGURES 22–29. Odontosphaeropyx leucocoxus Braet sp. nov., Holotype male. 22. full imago, laterally; 23. fore wing; 24. metasoma, laterally; 25. metasoma, dorsal; 26. head, face; 27. mesosoma, lateral; 28. head and anterior part of mesosoma, dorsal; 29. head, lateral.
FIGURES 9–14 in New data on African Cheloninae (Hymenoptera, Braconidae) show a strong biogeographic signal for taxa with spined propodea
FIGURES 9–14. Chelonus (Chelonus) mayi Braet & Rousse sp. nov., Holotype female. 9. full imago; 10. apex of metasoma; 11. anterior part of mesosoma, dorsal; 12. head and mesosoma lateral; 13. metasoma, lateral; 14. metasoma, dorsal
FIGURES 1–8 in New data on African Cheloninae (Hymenoptera, Braconidae) show a strong biogeographic signal for taxa with spined propodea
FIGURES 1–8. Ascogaster kibalensis Braet sp. nov., Holotype female. 1. full imago; 2. metasoma, dorsal; 3. metasoma, lateral; 4. medio transversal carina of propodeum; 5. anterior part of mesosoma, dorsal; 6. head and mesosoma lateral; 7. apex of metasoma; 8. head, face.
ScienceDex guides
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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.