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2,247 results for “Western Australia”
Figs 1–7 in A New Genus And Species Of The Subtribe Anisodactylina From South-Western Australia (Coleoptera: Carabidae: Harpalini)
Figs 1–7. Nornalupia megacephala sp. n. Head and pronotum, lateral apect (1). Apex of left mandible, frontal aspect (2). Right margin of pronotum (3–4). Habitus (5). Right metepisternum (6). La-
Figure 2. Intertidal rock oysters from the Pilbara, Western Australia. A in Distribution of intertidal rock oysters in the Pilbara, Western Australia
Figure 2. Intertidal rock oysters from the Pilbara, Western Australia. A: Saccostrea lineage A from a trial aquaculture farm (WAMS_117501; GenBank OR466892). B. Saccostrea scyphophilla (WAMS_117500; GenBank OR466930) C. Natural Saccostrea lineage A from a rocky shore (WAMS_117506; GenBank OR466894). D, E. Talonostrea sp. nov. (WAMS_117503; WAMS_117504; GenBank OR466939). Scale bars are 1 cm. Photographs by Fred Wells.
Figure 3. Saccostrea lineage A in Distribution of intertidal rock oysters in the Pilbara, Western Australia
Figure 3. Saccostrea lineage A (left) and Saccostrea scyphophilla (center) and Talonostrea sp. nov. in their natural habitat in the Pilbara, Western Australia. Note that Talonostrea sp. nov. actually lived underwater attached to the bottom of the Avicennia marina branch but have been moved so they are visible. Photographs by Fred Wells.
FIGURE 10 in Palaeoecology and sea level changes: Decline of mammal species richness during late Quaternary island formation in the Montebello Islands, north-western Australia
FIGURE 10. Number of species identified from each spit in Morgan's Cave, illustrating the increasing loss of species from spits four to one.
FIGURE 9 in Palaeoecology and sea level changes: Decline of mammal species richness during late Quaternary island formation in the Montebello Islands, north-western Australia
FIGURE 9. Species-area plot for islands on the north-west continental shelf (filled circles) (data from Abbott and Burbidge, 1995), and spits one to seven in Morgan's Cave (open circles).
FIGURE 8 in Palaeoecology and sea level changes: Decline of mammal species richness during late Quaternary island formation in the Montebello Islands, north-western Australia
FIGURE 8. Log non-volant species vs log area plot for the north-west islands (filled circles) and the super-island at sea level 10 m below present (open circle).
FIGURE 6 in Palaeoecology and sea level changes: Decline of mammal species richness during late Quaternary island formation in the Montebello Islands, north-western Australia
FIGURE 6. Species accumulation curve for Morgan's Cave, showing increasing species with increased sampling effort (cumulative NISP). Further sampling effort could have yielded more species.
Figure 7 in Whale killers: Prevalence and ecological implications of killer whale predation on humpback whale calves off Western Australia
Figure 7. The remains of a humpback whale juvenile (length estimate 8–9 m), <60 h after it was last seen intact (and probably still alive) at the surface; it was apparently killed and then eaten by sharks during 20–22 May 2014, off Coral Bay, WA. Photo: Migration Media.
Figure 3. A in Whale killers: Prevalence and ecological implications of killer whale predation on humpback whale calves off Western Australia
Figure 3. A mother humpback and her calf at Ningaloo Reef, Western Australia. Although the killer whales broke off the attack when the pair moved into shallow reef waters, the damage to the calf's lower jaw during the attack would likely prove fatal (#11). Photo: J. Totterdell.
Figure 1 in Whale killers: Prevalence and ecological implications of killer whale predation on humpback whale calves off Western Australia
Figure 1. Location of our study area off Ningaloo Reef, Western Australia, showing locations and outcomes of interactions between humpback whales and killer whales. Inset in upper right shows area where our survey effort was concentrated in 2013 (see Methods).
Figure 4. A in Whale killers: Prevalence and ecological implications of killer whale predation on humpback whale calves off Western Australia
Figure 4. A humpback mother lifts her calf out of the water on her back shortly before it was killed by attacking killer whales (#9). The killer whale on the far left is carrying the carcass of another humpback calf taken several minutes earlier (#8). Photo: S. Wenngren.
Figure 2 in Whale killers: Prevalence and ecological implications of killer whale predation on humpback whale calves off Western Australia
Figure 2. Movements of a satellite-tagged killer whale that we tracked for 22 d in July/ August 2013 off Western Australia. The track was estimated by fitting a continuous-time correlated random walk model (Johnson et al. 2008) to 452 locations calculated by the Argos satellite system (http://www.argos-system.org) to estimate locations and velocities at hourly intervals. Colored circles represent the estimated displacement velocity for each predicted location (speed in km/h; green is slower, red is faster), with speed classified into one of four velocity intervals, determined by the Jenks algorithm for natural breaks (Jenks 1967).
Fig. 2 in Environmental conditions predict helminth prevalence in red foxes in Western Australia
Fig. 2. Prevalence of Uncinaria stenocephala and Dipylidium caninum from red foxes at each sampling location.
Fig. 1 in Environmental conditions predict helminth prevalence in red foxes in Western Australia
Fig. 1. Prevalence of helminths in red foxes (n=147) from sampling locations throughout southwest Western Australia. Numbers in parentheses indicate sample size at each location.
Fig. 1 in Morphological and molecular characterization of Eimeria purpureicephali n. sp. (Apicomplexa:Eimeriidae) in a red-capped parrot (Purpureicephalus spurius, Kuhl, 1820) in Western Australia
Fig. 1. Nomarski interference-contrast photomicrographs of E. purpureicephali n. sp. oocysts showing spheroidal to subspheroidal sporocysts (scale bar = 20 Mm) (1—5) and line drawing of the sporulated oocyst of E. purpureicephali n. sp. Scale bar = 20 Mm (6).
Fig. 3 in Next generation sequencing reveals widespread trypanosome diversity and polyparasitism in marsupials from Western Australia
Fig. 3. Phylogenetic relationships between Trypanosoma sp. ANU2 and other members of the Trypanosoma genus. Maximum likelihood tree is shown. Neighbour-joining and maximumlikelihood bootstrap support followed by Bayesian posterior probability is shown at nodes, respectively. Genbank accession numbers follow species/genotype description. Trypanosoma species/genotypes isolated in Australia are in bold. Scale bar represents substitution per site.
Fig. 6 in Next generation sequencing reveals widespread trypanosome diversity and polyparasitism in marsupials from Western Australia
Fig. 6. Principle Coordinates Analysis (PCoA) plots demonstrating relationship between Trypanosoma spp. ZOTUs and host species. Dissimilarity matrices were generated using sqrt transformed Bray-Curtis distances to show distance between abundance of ZOTUs between host marsupial species; the woylie (blue squares) and brushtail possum (red circles). (For interpretation of the references to colour in this figure legend, the reader is referred to the Web version of this article.)
Fig. 2 in Next generation sequencing reveals widespread trypanosome diversity and polyparasitism in marsupials from Western Australia
Fig. 2. Abundance and diversity map of Trypanosoma copemani genotype 1 (G1) and genotype 2 (G2) positive samples. ZOTUs were sorted into G1 or G2 based on phylogenetic inference shown in rows, while columns are individual marsupial blood samples from infected individuals. The map represents samples separated by host species, which were WOY = woylie, or BTP = brushtail possum. Grayscale indicates number of sequences obtained from that sample as shown in the scale of intensity on the right (log transformed abundance).
Fig. 5 in Next generation sequencing reveals widespread trypanosome diversity and polyparasitism in marsupials from Western Australia
Fig. 5. Trypanosoma spp. polyparasitism in 70 blood samples taken from marsupials in the Upper Warren Region. Marsupial species include: woylie (WOY), brushtail possum (BTP) and chuditch (CHU). Trypanosoma spp. include; C = Trypanosoma copemani, V = T. vegrandis, N = T. noyesi, G = T. gilletti, A = T. sp. ANU2, I = T. irwini, AT = T. sp. AAT, U = unknown, AA = T. avium, and CR = Crithidia spp.
Fig. 4 in Next generation sequencing reveals widespread trypanosome diversity and polyparasitism in marsupials from Western Australia
Fig. 4. Abundance and diversity map of Trypanosoma spp. ZOTUs in different marsupial blood samples assigned to species groups shown in rows, while columns are individual blood samples. Samples are separated by host species including; WOY = woylie (34), CHU = chuditch (3), and BTP = brushtail possum (33). The colour scale indicates increasing number of sequences obtained from that sample, in that species, as shown in the intensity bar on the right. Species include; C = Trypanosoma copemani, V = T. vegrandis, N = T. noyesi, G = T. gilletti, A = T. sp. ANU2, I = T. irwini, AT = T. sp. AAT, U = unknown, AA = T. avium, and CR = Crithidia spp. (For interpretation of the references to colour in this figure legend, the reader is referred to the Web version of this article.)
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.