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13,453 results for “Australia.”
Figures 46–47 in New and Poorly Known Species of Crane Flies (Diptera: Limoniidae) from New South Wales, Australia
Figures 46–47. Thrypticomyia aureipennis. (46) male, hypopygium, dorsal view; (47) female, ovipositor, lateral.
Figures 5–6 in New and Poorly Known Species of Crane Flies (Diptera: Limoniidae) from New South Wales, Australia
Figures 5–6. Molophilus (Molophilus) flavocingulatus, male. (5) head colouration, dorsal; (6) hypopygium, ventral view.
Figures 36–39 in New and Poorly Known Species of Crane Flies (Diptera: Limoniidae) from New South Wales, Australia
Figures 36–39. Elephantomyia (Elephantomyodes) fumicosta, female. (36) head and rostrum, dorsal; (37) wing; (38) abdominal colouration, dorsal; (39) ovipositor.
Fig. 3. – Geosiris australiensis B. Gray & Y.W. Low. A in First record of Geosiris (Iridaceae: Geosiridoideae) from Australasia: a new record and a new species from the Wet Tropics of Queensland, Australia
Fig. 3. – Geosiris australiensis B. Gray & Y.W. Low. A. Habit; B. Close-up of a flower bud with bracts; C. Close-up of extrorse stamens showing anthers with a longitudinal slit and forming a tight ring around the style; D. Top view of stigma showing truncate apex with short fimbriate margin.
Fig. 2. – Geosiris australiensis B. Gray & Y.W. Low. A in First record of Geosiris (Iridaceae: Geosiridoideae) from Australasia: a new record and a new species from the Wet Tropics of Queensland, Australia
Fig. 2. – Geosiris australiensis B. Gray & Y.W. Low. A. Habit showing underground rhizome; B. Close-up of stigma with a truncate apex; C. Side view of a flowering head with an unopened flower bud; D. Cross section of an open flower showing stamens in a tight ring around the style just above the corolla throat.
Fig. 1. – Stigmatic heads. A. Geosiris albiflora Goldblatt & J.C in First record of Geosiris (Iridaceae: Geosiridoideae) from Australasia: a new record and a new species from the Wet Tropics of Queensland, Australia
Fig. 1. – Stigmatic heads. A. Geosiris albiflora Goldblatt & J.C. Manning; B. G. aphylla Baill. C. G. australiensis B. Gray & Y.W. Low.
FIGURE 1 in Pinniped (Mammalia: Carnivora) fossils from Black Rock, a new late Neogene vertebrate locality in Victoria, Australia
FIGURE 1. The locality of the fossil site at Black Rock. Panels show A) Australasia, B) the Australian state, Victoria, C) Port Phillip Bay, D) Bayside, including Beaumaris and Black Rock.
FIGURE 3 in Pinniped (Mammalia: Carnivora) fossils from Black Rock, a new late Neogene vertebrate locality in Victoria, Australia
FIGURE 3. The pinniped fossil record in A) Australasia. Site locations in B) Australia and C) New Zealand. D) The stratigraphic record of pinniped fossils, with potential pinniped turnover events. Dark grey shading indicated the timing of the Late Pliocene marine megafauna extinction (Pimiento et al., 2017).
FIGURE 2. The Black Rock phocid specimens. NMV P254995 in Pinniped (Mammalia: Carnivora) fossils from Black Rock, a new late Neogene vertebrate locality in Victoria, Australia
FIGURE 2. The Black Rock phocid specimens. NMV P254995, right mandible in A) lateral, B) medial, C) dorsal, D) ventral, E) annotated lateral, and F) annotated dorsal views. NMV P254178, phalanx in, G) side, H) ventral, I) opposing side, and J) dorsal views. Scale bar equals 20 mm.
Figure 2 in Evaluation of root-knot nematode resistance assays for sugarcane accession lines in Australia
Figure 2: Regressions to show the relationship between root biomass and ln(eggs per g roots+1) in eight nematode trials.
Figure 1 in Evaluation of root-knot nematode resistance assays for sugarcane accession lines in Australia
Figure 1: Examples of root-knot nematode gall ratings for sugarcane based on percentage of root system with galls. 1 = ≤1 to 2%, 2 = 2 to 25%, 3 = 25 to 50%, 4 = 51 to 75%, 5 ≥ 75% (modified from Shepherd 1979).
Fig. 6 in Eocene phymaraphiniid demosponges from South Western Australia: filling the gap
Fig. 6. Skeletal features of morphological variability of the phymaraphiniid sponge Pickettispongia tabelliformis (Chapmann and Crespin, 1934), from the Fitzgerald River National Park (A–D, Doyle Road; E–I, Hamersley River area), Australia, upper Eocene. A. Upper surface showing ectosomal discotriaenes; between them rhizoclone-like modified desmas are visible, ZPAL Pf. 14/st.A839. B. General view of the choanosomal skeleton with canal openings, ZPAL Pf. 14/st.A823. C. Detailed view of choanosomal skeleton surface showing trider desmas and their articulations, ZPAL Pf. 14/st.A823. D. Surface of choanosomal skeleton showing trider with hemispherical central tubercle, ZPAL Pf. 14/st.A823. E. Slightly eroded surface of the choanosomal skeleton showing densely distributed canal openings, ZPAL Pf. 14/st.914. F. Details of triders showing variability in sculpture of desmas, ZPAL Pf. 14/st.825. G. Oblique view of triders showing articulations, ZPAL Pf. 14/st.914. H, I. Details of trider sculpture. H. ZPAL Pf. 14/st.914. I. ZPAL Pf. 14/st.913.
Fig. 3 in Eocene phymaraphiniid demosponges from South Western Australia: filling the gap
Fig. 3. Morphological variability of the phymaraphiniid sponge Twertupia subglabra (Chapmann and Crespin, 1934) from the Fitzgerald River National Park (A, Doyle Road; B–D, F, G, J, K, Twertup area; E, H, I, Hamersley River area), Australia, upper Eocene. A. ZPAL Pf. 14/1. B. ZPAL Pf. 14/2. C. WAM 2023.2a. D. ZPAL Pf. 14/3. E. ZPAL Pf. 14/4. F. ZPAL Pf. 14/5. G. ZPAL Pf. 14/6. H. ZPAL Pf. 14/7. I. ZPAL Pf. 14/8. J. WAM 2023.2b. K. ZPAL Pf. 14/9.
Fig. 9 in Eocene phymaraphiniid demosponges from South Western Australia: filling the gap
Fig. 9. Geographic distribution of extant and fossil representatives of the demosponge family Phymaraphiniidae.
Fig. 8 in Eocene phymaraphiniid demosponges from South Western Australia: filling the gap
Fig. 8. Choanosomal desma skeleton of the extant phymaraphiniid sponge Kaliapis incrustans (Vacelet and Vasseur, 1971) from Madagascar, MNHN E531, Tu63, composed of trider desmas.
Fig. 5 in Eocene phymaraphiniid demosponges from South Western Australia: filling the gap
Fig. 5. Morphological variability of the phymaraphiniid sponge Pickettispongia tabelliformis (Chapmann and Crespin, 1934) from the Fitzgerald River National Park (B, Doyle Road; A, C Hamersley River area), Australia, upper Eocene. A. Opposite side views (A1, A2) and transverse section (A3) showing narrow slit in the middle, WAM 2023.3/a. B. ZPAL PF. 14/10. C. Opposite side views (C1, C2) and transverse section (C3) showing narrow slit in the middle, ZPAL Pf. 14/11.
Fig. 2 in Eocene phymaraphiniid demosponges from South Western Australia: filling the gap
Fig. 2. Specimens of phymaraphiniid sponges illustrated by Chapman and Crespin (1934) and Laubenfels (1953). A, B. Type material of Twertupia subglabra (Chapman and Crespin, 1934) (originally Thamnospongia subglabra; Chapman and Crespin 1934: pl. 9: 17, 18), Hamersley River area, Australia, upper Eocene. A. Holotype, GSWA H1. B. Paratype GSWA H16. C, D. Twertupia subglabra (originally Stachyspongia neoclavatella; Laubenfels 1953: text-fig. 2A right and left), SW Australia, exact locality unknown, upper Eocene, WA23732 (two different specimens with the same collection number). E. Type material of Pickettispongia tabelliformis (Chapman and Crespin, 1934) (originally Discodermia tabelliformis; Chapman and Crespin 1934: pl. 7: 7), Hamersley River area, Australia, upper Eocene. GSWA 1/3966, E1, E2, opposite surface views, E3, section view.
Fig. 4 in Eocene phymaraphiniid demosponges from South Western Australia: filling the gap
Fig. 4. Skeletal features of the phymaraphiniid sponge Twertupia subglabra (Chapmann and Crespin, 1934), from the Fitzgerald River National Park (A, B, F, H, Doyle Road; C, D, E, G, I, Hamersley River area), Australia, upper Eocene. A. Upper surface showing ectosomal disco/phyllotriaenes; between them rhizoclone-like modified desmas are visible, ZPAL Pf. 14/st.A822. B. General view of the choanosomal skeleton with canal openings, ZPAL Pf. 14/ st.A819. C. Detailed view of choanosomal skeleton surface showing trider desmas and their sculpture in oblique view, ZPAL Pf. 14/st.906. D. Surface of choanosomal skeleton showing development of the secondary skeleton composed of flattened modified triders covering canal openings, ZPAL Pf. 14/ st.906. E. Young trider desma partly incorporated into the skeleton, ZPAL Pf. 14/st.A743. F. Surface of choanosomal skeleton showing variable sculpturing of the triders, ZPAL Pf. 14/st.A819. G. Details of trider sculpture and articulations, ZPAL Pf. 14/st.906. H, I. Trider sculpture variability. H. ZPAL Pf. 14/st.A748. I. ZPAL Pf. 14/st.A821.
Fig. 1 in Eocene phymaraphiniid demosponges from South Western Australia: filling the gap
Fig. 1. Palaeogeography of the Eocene in SW Australia (A) and location of investigated sections (B, stars). Eocene sediment shaded. Based on Gammon et al. (2000b).
Fig. 7 in Eocene phymaraphiniid demosponges from South Western Australia: filling the gap
Fig. 7. Loose spicules of the extant phymaraphiniid sponge Kaliapsis incrustans (Vacelet and Vasseur, 1971) from Madagascar, MNHN E531, Tu63. A–C. Microrhabds. D, E. Amphiasters. F–J. Ectosomal phyllotriaenes in top (F–H, note tuberculation) and lower surface views (I, J, note short rhabd).
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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)
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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.