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73 results for “Piciformes”
Fig. 1 in The Diversity Of Cuculiform And Piciform Species In Partly Transformed Riparian Zambezi Forest
Fig. 1. Location of the study area. Explanations: a — grassland (flooded area); b — Zambezi riparian forest; c — Colophospermum mopane forest; d — Kalahari Woodland; e — arable land; f — urbanized built-up areas; g — rural areas; h — Zambezi River; i — border of the study area.
Fig. 1 in First description of the breeding biology and behaviour of the near threatened northern sooty woodpecker Mulleripicus funebris (Valenciennes 1826) (Piciformes: Picidae) in Luzon Island, Philippines
Fig. 1 - Cavity nest excavated by the northern sooty woodpecker: a) nest entrance; b) nest contents. / Nido scavato dal picchio fuligginoso: a) ingresso del nido; b) contenuto del nido. (Photo: / Foto: Erwin S. Quijano, 29 May 2022).
Fig. 2 in First description of the breeding biology and behaviour of the near threatened northern sooty woodpecker Mulleripicus funebris (Valenciennes 1826) (Piciformes: Picidae) in Luzon Island, Philippines
Fig. 2 - Contribution of male and female northern sooty woodpecker to different breeding activities in one full daylight observation period (06:00-18:00). Nest building and brooding efforts were expressed as proportions of time spent (%) from total observation hours whereas feeding and faecal sac removal as proportions of counts (%) from total number of incidences. / Contributo del maschio e della femmina di picchio fuligginoso alle diverse attività riproduttive durante un intero periodo di osservazione diurna (06:00-18:00). Lo sforzo per la costruzione del nido e la cova è stato espresso come proporzione del tempo trascorso (%) rispetto al totale delle ore di osservazione, mentre l'alimentazione e la rimozione delle sacche fecali come proporzione dei conteggi (%) rispetto al numero totale di incidenze.
Fig. 4. A in First record of the nesting biology of the red-vented barbet, Megalaima lagrandieri (Aves: Piciformes: Megalaimidae), an Indochinese endemic
Fig. 4. A, Parent red-vented barbet on the nesting hole. B–F, with different food items: B, lizard Bronchocela smaragdina; C, figs; D, fruit of Knema sp.; E, bush cricket Zabalius sp.; and F, cicada.
Fig. 3 in First record of the nesting biology of the red-vented barbet, Megalaima lagrandieri (Aves: Piciformes: Megalaimidae), an Indochinese endemic
Fig. 3. Frequency of parental feeding visits during the early nestling period (average for seven days of observation, from 2nd to 13th day of feeding) in the red-vented barbet.
Fig. 1 in First record of the nesting biology of the red-vented barbet, Megalaima lagrandieri (Aves: Piciformes: Megalaimidae), an Indochinese endemic
Fig. 1. Longitudinal and transversal sections of the nest of the redvented barbet. All distances are given in millimetres (mm). "A" stands for the level of the transversal section.
Fig. 7 in The Diversity Of Cuculiform And Piciform Species In Partly Transformed Riparian Zambezi Forest
Fig. 7. Distribution of breeding pairs of woodpeckers in Zambezi riparian forest.
Fig. 5 in The Diversity Of Cuculiform And Piciform Species In Partly Transformed Riparian Zambezi Forest
Fig. 5. Distribution of occupied male territories of cuckoos in Zambezi riparian forest.
Fig. 2 in The Diversity Of Cuculiform And Piciform Species In Partly Transformed Riparian Zambezi Forest
Fig. 2. Zambezi forest dominated by Lonchocarpus trees.
Fig. 6 in The Diversity Of Cuculiform And Piciform Species In Partly Transformed Riparian Zambezi Forest
Fig. 6. Distribution of occupied male territories of coucals in Zambezi riparian forest.
Fig. 5 in First record of the nesting biology of the red-vented barbet, Megalaima lagrandieri (Aves: Piciformes: Megalaimidae), an Indochinese endemic
Fig. 5. Fourteen-day-old nestling of the red-vented barbet.
FIG. 4 in The complete mitochondrial genome of the Eurasian wryneck Jynx torquilla (Aves Piciformes: Picidae) and its phylogenetic inference
FIG. 4. Phylogenetic trees of 17 piciform species based on the amino acid dataset. The numbers abutting branches refer to Bayesian posterior probabilities (left) and ML bootstraps (right), ‾ not recovered. Branch lengths and topology are from the BI analysis. Halcyon pileata (Coraciiformes) was used to root the trees as an outgroup.
FIG. 2 in The complete mitochondrial genome of the Eurasian wryneck Jynx torquilla (Aves Piciformes: Picidae) and its phylogenetic inference
FIG. 2. Genetic distance within subfamily, between subfamily and family. Each boxplot represents the P distance based on the nucleotide and the amino acid datasets from 13 mitochondrial PCGs. Lower horizontal bar represents smallest observation, lower edge of rectangle represents 25 percentile, central bar within rectangle represents median, upper edge of rectangle represents 75 percentile, upper horizontal bar represents largest observation.
FIG. 1 in The complete mitochondrial genome of the Eurasian wryneck Jynx torquilla (Aves Piciformes: Picidae) and its phylogenetic inference
FIG. 1. Circular map of the J. torquilla mitogenome. The inner circle shows the GC content, which is calculated based on a window-sliding method. The outer circle shows the gene features, orange for rRNA, red for tRNA, and blue for CDS. Genes inside the circle (on the J strand) are transcribed clockwise, while the outsides (on the N strand) are transcribed counterclockwise.
FIG. 3 in The complete mitochondrial genome of the Eurasian wryneck Jynx torquilla (Aves Piciformes: Picidae) and its phylogenetic inference
FIG. 3. Phylogenetic trees of 17 piciform species based on the nucleotide dataset inferred from Bayesian inference (a) and maximum likelihood (b). The numbers abutting branches refer to Bayesian posterior probabilities (BPP) and bootstrap support (BS). Halcyon pileata (Coraciiformes) was used to root the trees as an outgroup.
FIGURES 9–18. 9–12, Myrsidea extranea. 9 in The genus Myrsidea Waterston (Phthiraptera: Menoponidae) from the toucans (Piciformes: Ramphastidae), with descriptions of three new species
FIGURES 9–18. 9–12, Myrsidea extranea. 9, Female dorsal thorax, metasternum, and dorsoventral abdomen. 10, Male genitalia. 11, Male genital sac sclerites. 12, Male metanotum and dorsoventral abdomen. 13–14, M. peruviana. 13, Female dorsal thorax and abdomen. 14, Male genital sac sclerites. 15, M. abbreviata female metanotum and dorsoventral abdomen. 16, M. dorotheae male genital sac sclerites. 17–18, M. lanei. 17,
FIGURES 1–8. 1–4, Myrsidea victrix. 1, Dorsoventral male. 2, Male genitalia. 3 in The genus Myrsidea Waterston (Phthiraptera: Menoponidae) from the toucans (Piciformes: Ramphastidae), with descriptions of three new species
FIGURES 1–8. 1–4, Myrsidea victrix. 1, Dorsoventral male. 2, Male genitalia. 3, Female metanotum and dorsoventral abdomen. 4, Male genital sac sclerites, M. victrix and M. abbreviata. 5–6, M. ceciliae. 5, Female metanotal margin and dorsoventral abdomen. 6, Male genital sac sclerites. 7–8, M. witti. 7, Male genital sac sclerites. 8, Female dorsal thorax and dorsoventral abdomen.
FIGURES 1–8. 1–5, Austrophilopterus cancellosus. 1, Entire dorsoventral male. 2, Male dorsal head. 3, Male genitalia. 4 in The genus Austrophilopterus Ewing (Phthiraptera: Philopteridae) from toucans, toucanets, and araçaris (Piciformes: Ramphastidae)
FIGURES 1–8. 1–5, Austrophilopterus cancellosus. 1, Entire dorsoventral male. 2, Male dorsal head. 3, Male genitalia. 4, Terminal portion of male genitalia. 5, Female metanotum and dorsoventral abdomen. 6–7, A. flavirostris. 6, Male dorsoventral posterior abdomen. 7, Terminal portion of male genitalia. 8, A. megathorax female dorsal head.
FIGURES 9–16. 9–13, Austrophilopterus truncatus. 9 in The genus Austrophilopterus Ewing (Phthiraptera: Philopteridae) from toucans, toucanets, and araçaris (Piciformes: Ramphastidae)
FIGURES 9–16. 9–13, Austrophilopterus truncatus. 9, Male metanotum and dorsoventral abdomen. 10, Male dorsal head. 11, Male genitalia. 12, Terminal portion of male genitalia. 13, Female metanotum and dorsoventral abdomen. 14, A. dimorphus dorsal holotype male. 15–16, A. thysi. 15, Male dorsoventral posterior abdomen. 16, Male dorsal head.
FIGURE 28 in Picicola Clay and Meinertzhagen (Phthiraptera: Philopteridae) from jacamars and puffbirds (Piciformes: Galbulidae, Bucconidae), with descriptions of five new species
FIGURE 28. Phylogram based on maximum likelihood analysis of 379 base pairs of DNA sequence from the mitochondrial COI gene. Maximum likelihood tree searches involved 10 random addition replicates using the HKY + I + G model (parameters A=0.2761, C=0.1313, G=0.2063, T=0.3862; Ti/Tv Ratio = 4.5023; I=0.5086; α=0.6366). Numbers above or below branches are support from 100 likelihood bootstrap replicates (only values>50% are shown). Branch lengths are proportional to substitutions per site as indicated by the scale bar. Inset shows bootstrap values within the P. galbulica/striata clade. Phylogram is rooted on Austrophilopterus andigenae (DNA voucher 1.17.2000.8) and A. thysii (DNA voucher 1.17.2000.7) (not shown). Taxon labels include louse name, DNA voucher numbers, and host name. Host voucher specimen information is deposited in Genbank. P. = Picicola.
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Allen Brain Atlas
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Annotated Behaviour and Observability Dataset (ABODe)
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DANDI Archive for NWB datasets
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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.