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FIGURE 3. SEM, Odontosyllis robustus n in Syllidae (Annelida: Phyllodocida) from Lizard Island, Great Barrier Reef, Australia
FIGURE 3. SEM, Odontosyllis robustus n. sp. AM W.44755. A. Anterior chaetiger, lateral view; B–D. anterior to mid-body chaetae; E. Posterior chaeta. SEM Odontosyllis sp. 1 AM W.47187. F. Anterior chaetiger, ventral view; G–I. Anterior chaetae; J. Mid-body chaetiger; K–N. Mid-body and posterior chaetae.
FIGURE 2. Odontosyllis robustus n in Syllidae (Annelida: Phyllodocida) from Lizard Island, Great Barrier Reef, Australia
FIGURE 2. Odontosyllis robustus n. sp. AM W.44768; A. Anterior end, dorsal view; B. Mid-body chaetigers, bidentate chaetae; C. Acicula, posterior chaetiger. Scale bars: A= 0.1 mm; B, C = 2 µm.
FIGURE 1. A in Syllidae (Annelida: Phyllodocida) from Lizard Island, Great Barrier Reef, Australia
FIGURE 1. A. Amblyosyllis sp. AM W.47194, dorsal view; B. Odontosyllis robustus n. sp. AM W.44768, dorsal view; C. Odontosyllis sp. 1, AM W.47187, dorsal view; D. Odontosyllis robustus n. sp., lateral view, arrows pointing parapodia with a distal white ring and dorsal bump; E. Odontosyllis sp. 1, ventrolateral view; F. Odontosyllis robustus n. sp., ventral view.
FIGURE 19. Semivermilia annehoggettae n in Serpulidae (Annelida) of Lizard Island, Great Barrier Reef, Australia
FIGURE 19. Semivermilia annehoggettae n. sp., SEM images, AM W.47576 (A–E), SAM stn.G232 (F, G). A. Ventro-lateral view of entire animal; B. Collar chaetae; C. Apomatus and limbate chaetae of third thoracic chaetiger; D. Uncini of second chaetiger; E. Uncini of posterior chaetiger; F. Tube with paired brooding chambers; G. Larvae of various developmental stages: trochophore (leftmost), metatrochophore (middle two) and nectochaeta with 3 chaetigers (rightmost). Photo: A–E—E. Kupriyanova & S. Lindsay, F, G—G. Rouse. Scale bars: A = 100 µm, B, D–E = 2 µm, C, F–G = 10 µm.
FIGURE 18. Semivermilia annehoggettae n in Serpulidae (Annelida) of Lizard Island, Great Barrier Reef, Australia
FIGURE 18. Semivermilia annehoggettae n. sp. A. Tube with typical paired ovicells, SAM, stn.G241; B. Live animal in tube, stn.G240, AM 47576; C. Holotype, stn.G236, AM W.47575; D. Tubes with typical paired ovicells, stn.G232, AM W.47577. Photos: G. Rouse. Scale bars: A, B = 0.2 mm, C, D = 0.5 mm.
FIGURE 21. Semivermilia lylevaili n in Serpulidae (Annelida) of Lizard Island, Great Barrier Reef, Australia
FIGURE 21. Semivermilia lylevaili n. sp., SEM images, AM W.47582. A. Lateral view of entire worm; B. Collar chaetae; C. Thoracic chaetae with Apomatus chaeta; D. Thoracic uncini; E. Abdominal chaetae; F. Abdominal uncini. Photo: A–F—E. Kupriyanova & S. Lindsay. Scale bars: A = 100 µm, B–C = 10 µm, D–F = 2 µm.
FIGURE 24. A in Serpulidae (Annelida) of Lizard Island, Great Barrier Reef, Australia
FIGURE 24. A. Serpula vittata, live specimen in tube, stn.G236, SAM E3594; B. S. watsoni removed from tube, stn.G235, AM W.42062; C. Serpula sp. 1 in tube, AM W.45048; D. Serpula sp. 2 in tube, AM W.45413. Photo: A, B—G. Rouse, C, D—A. Semenov. Scale bars: A–D = 1 mm.
FIGURE 1. Neosabellides lizae n in Neosabellides lizae, a new species of Ampharetidae (Annelida) from Lizard Island, Great Barrier Reef, Australia
FIGURE 1. Neosabellides lizae n. sp., holotype, AM W.44032. A. Habitus, lateral view, live animal; B. Habitus, dorso-lateral view, live animal; C. Frontal view, fixed and stained with methyl blue; D. Anterior part, dorsal view, fixed and stained with methyl blue; E. Latero-ventral view, fixed and stained with methyl blue. Abbreviations: br = branchiae, bt = buccal tentacles. Arrows indicate the position of eyes in live specimens.
FIGURE 3. Hydroides externispina. A in Serpulidae (Annelida) of Lizard Island, Great Barrier Reef, Australia
FIGURE 3. Hydroides externispina. A. Live animal in tube, AM W.45056; B. Fixed specimen, various views of the same operculum. Photo: A—A. Semenov, B—E. Wong. Scale bars: A = 1 mm, B = 0.1 mm.
FIGURE 2 in Serpulidae (Annelida) of Lizard Island, Great Barrier Reef, Australia
FIGURE 2. Hydroides albiceps, fixed specimen, various views of the same operculum, AM W.20155. Photo: E. Wong. Scale bars = 0.1 mm.
FIGURE 16. Pseudovermilia pacifica. A in Serpulidae (Annelida) of Lizard Island, Great Barrier Reef, Australia
FIGURE 16. Pseudovermilia pacifica. A. Specimen in tube, AM W.28343; B. Specimen in tube, AM W.28326; C. Operculum, AM W.28305; D. Operculum, AM W.28326; E. Specimen in tube, AM W.28305. Photo: E. Wong. Scale bars: A = 0.5 mm, B–E = 0.1 mm.
FIGURE 10 in Serpulidae (Annelida) of Lizard Island, Great Barrier Reef, Australia
FIGURE 10. Hydroides trivesiculosa, live animals in tubes. A. Stn.G229, SAM E3601; B. Stn.G236, AM W.40553. Photo: A, B—G. Rouse. Scale bars: A–B = 0.5 mm.
FIGURE 15. Protula spp., live specimens. A in Serpulidae (Annelida) of Lizard Island, Great Barrier Reef, Australia
FIGURE 15. Protula spp., live specimens. A. Animal in tube, stn.G235, SAM; B. AM W.45075; C. Stn.231, SAM; D. P. bispiralis, live specimen in situ, stn.G238. Photo: A, C, D—G. Rouse, B—A. Semenov. Scale bars: A = 3 mm, B = 2 mm, C = 10 mm, D = 50 mm.
FIGURE 9. Hydroides tambalagamensis. A in Serpulidae (Annelida) of Lizard Island, Great Barrier Reef, Australia
FIGURE 9. Hydroides tambalagamensis. A. Live animal in tube, stn.G232, SAM E3598; B. Live animal in tube, AM W.45058; C. Tube fragment showing typical internal layer made of spicules, AM W.45050. Photo: A—G. Rouse, B, C—A. Semenov. Scale bars: A–C = 1 mm.
Figure 4. A in Small islands and large biogeographic barriers have driven contrasting speciation patterns in Indo-Pacific sunbirds (Aves: Nectariniidae)
Figure 4. A, geographic distribution of Leptocoma aspasia haplotypes in Wallacea and the Sahul Shelf. Each circle represents an island and the fractions within the circle the haplotypes found on that island, proportioned to represent the frequency of each haplotype. The haplotypes are named according to the species-level divisions suggested by ABGD and coloured to represent the clades supported by our phylogenetic analyses. B, TCS haplotype network of Leptocoma haplotypes. Each circle represents a unique ND2–ND3 haplotype, sized to represent how many birds carried that haplotype. The hatch marks represent mutations between haplotypes, also given as numbers in brackets for the wider divergences. The unfilled, white nodes represent hypothetical ancestral states. C, Bayesian consensus tree of Leptocoma haplotypes. Nodes are labelled with Bayesian probabilities.
Figure 1. A in Small islands and large biogeographic barriers have driven contrasting speciation patterns in Indo-Pacific sunbirds (Aves: Nectariniidae)
Figure 1. A, map of the Indo-Pacific region with study regions marked inside boxes. The range of the olive-backed sunbird is shaded horizontally in yellow, the range of the black sunbird vertically in purple, both according to BirdLife International. Seas deeper than 200 m are represented by a darker blue. Biogeographic barriers (Wallace, 1863; Lydekker, 1896) are represented with red lines. B, map of south-east Sulawesi and the Wakatobi Islands in Wallacea, with olive-backed sunbird sampling sites marked with yellow downward-pointing triangles, black sunbird sampling sites with purple upward-pointing triangles. C, map of Australia and New Guinea on the Sahul Shelf, with olive-backed sunbird sampling sites marked with yellow downward-pointing triangles, black sunbird sampling sites with purple upward-pointing triangles. D, map of the Bismarck Archipelago with the sampling site of the B10K black sunbird marked with a purple triangle.
Figure 2 in Small islands and large biogeographic barriers have driven contrasting speciation patterns in Indo-Pacific sunbirds (Aves: Nectariniidae)
Figure 2. Simplified version of a combined maximum likelihood (ML) and Bayesian phylogenetic tree of Cinnyris and Leptocoma species sampled in Wallacea and the Sahul Shelf. In this figure, the outgroup is omitted and each major clade in the data is collapsed into a single branch. Tips representing focal populations are marked with coloured circles. Nodes are labelled with Bayesian probability/ ML bootstraps. Full versions of the ML and Bayesian trees, including all outgroup taxa, are provided in the Supporting Information (Figs S7, S8).
Figure 3. A in Small islands and large biogeographic barriers have driven contrasting speciation patterns in Indo-Pacific sunbirds (Aves: Nectariniidae)
Figure 3. A, geographic distribution of Cinnyris jugularis (sensu Gill et al., 2022) haplotypes in Wallacea and the Sahul Shelf. Each circle represents an island and the fractions within the circle the haplotypes found on that island, proportioned to represent the frequency of each haplotype. The haplotypes are named according to the species-level divisions suggested by ABGD and coloured to represent the clades supported by our phylogenetic analyses. B, TCS haplotype network of Cinnyris haplotypes. Each circle represents a unique ND2–ND3 haplotype, sized to represent how many birds carried that haplotype. The hatch marks represent mutations between haplotypes, also given as numbers in brackets for the wider divergences. The unfilled, white nodes represent hypothetical ancestral states. C, Bayesian consensus tree of Cinnyris haplotypes. Nodes are labelled with Bayesian probabilities.
Figure 5. A in Small islands and large biogeographic barriers have driven contrasting speciation patterns in Indo-Pacific sunbirds (Aves: Nectariniidae)
Figure 5. A, map of the Indo-Pacific with the range of the olive-backed sunbird shaded, as currently recognized by BirdLife International. Sampling sites of the birds included in our 697 bp partial ND2 analysis are marked with different triangles, according to the species they were assigned to by ABGD. Currently recognized subspecies are labelled (Gill et al., 2022). B, mean genetic distance (uncorrected p-distance) between each of the species recognized by ABGD, based on a 697 bp partial ND2 alignment. C, simplified version of a combined maximum likelihood (ML) and Bayesian phylogenetic tree of 697 bp of olive-backed sunbird ND2. In this figure the outgroup is omitted and each of the ABGD species is collapsed into a single branch. Nodes are labelled with Bayesian probability/ ML bootstraps.
FIGURE 23 in New gnathiid isopod crustaceans (Cymothoida) from Heron Island and Wistari Reef, southern Great Barrier Reef
FIGURE 23. Gnathia glaucostega sp. nov., ♂, paratype, 3.8 mm (MTQ W24860). A, antennula. B, antenna. C, maxilliped. D, pylopod. E, second and third article of pylopod.
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.