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Figure 25. Lepidepecreum tourville n in The Lysianassoid Amphipod Genera Lepidepecreoides and Lepidepecreum in Southern Waters (Crustacea: Lysianassidae: Tryphosinae)
Figure 25. Lepidepecreum tourville n.sp. Holotype female, 5.8 mm, NMV J47730; paratype male, 5.6 mm, NMV J17159; Cape Tourville, Australia. Scales for U1–3 represent 0.1 mm, remainder represent 0.5 mm.
Figure 2. Lepidepecreoides bassi n in The Lysianassoid Amphipod Genera Lepidepecreoides and Lepidepecreum in Southern Waters (Crustacea: Lysianassidae: Tryphosinae)
Figure 2. Lepidepecreoides bassi n.sp. Holotype, 10.0 mm, NMV J47713, Point Hicks, Australia. Scales represent 0.2 mm.
Figure 3. a–d in The Taxonomy and Distribution of the Spider Genus Phryganoporus Simon (Araneae: Amaurobioidea: Desidae)
Figure 3. a–d, spiders and webs. a,b, Phryganoporus candidus: a, communal web; b, female. c, Phryganoporus nigrinus: female on solitary web with horn-shaped retreat. d, Phryganoporus melanopygus: female (note partial loss of white setae on carapace).
Figure 2. a–j in The Taxonomy and Distribution of the Spider Genus Phryganoporus Simon (Araneae: Amaurobioidea: Desidae)
Figure 2. a–j, spinnerets (female). a–f, Phryganoporus candidus: a, spinneret field; b, ALS; c, PMS; d, PLS; e, modified PLS and paracribellar spigots; f, cribellum. g–j, Phryganoporus nigrinus: g, spinneret field; h, PMS; i, modified PLS and paracribellar spigots; j, cribellum.
Figure 2 in The Tumbarumba Basaltic Gem Field, New South Wales: In Relation to Sapphire-Ruby Deposits of Eastern Australia
Figure 2. Gemstones, Tumbarumba field, photography G. Webb. a—Zircon xenocryst in basalt matrix, Ruby Creek. The crystal is 3 mm across. b—Strongly corroded blue sapphires, Tumbarumba Creek. Crystals to 6 mm across. c—Zoned "agate" sapphires, Tumbarumba Creek. Crystals to 6 mm across. d—Trapiche-like sapphires, with radiating silk zones, Tumbarumba Creek. Crystals to 11 mm acros s. e—Diffuse-zoned, vari-coloured sapphire crystals, Tumbarumba Creek. Crystals to 7 mm across. f—Pink to red corundums, Tumbarumb a Creek. Crystals to 11 mm across.
Figure 6 in The Tumbarumba Basaltic Gem Field, New South Wales: In Relation to Sapphire-Ruby Deposits of Eastern Australia
Figure 6. Representative colour absorption spectra (amplitude, A, plotted against wavelength in nm), unusual
Figure 10 in The Tumbarumba Basaltic Gem Field, New South Wales: In Relation to Sapphire-Ruby Deposits of Eastern Australia
Figure 10. Comparative post-Eocene basalt ages, Southern Tablelands–Snowy Mountains region, New South Wales, Australia. Age data for Grabben Gullen field from Bishop et al. (1985) and for Snowy field from Wellman & McDougall (1974),Young & McDougall (1993) and this paper. The diagram sets out entries in approximate geographic relationship. Ɵ indicates sapphire/zircon gemstone locality. Arrows indicate directions of plate motion and predicted volcanic shift.
Figure 87 in Uncovering Local Endemism in the Kimberley, Western Australia: Description of New Species of the Genus Amplirhagada Iredale, 1933 (Pulmonata: Camaenidae)
Figure 87. Interior of penial chamber of Amplirhagada dubitabile n.sp., paratype FMNH 219047 (8 July, scale 3 mm). Compare with Fig. 4 for labelling of structures.
Figure 85 in Uncovering Local Endemism in the Kimberley, Western Australia: Description of New Species of the Genus Amplirhagada Iredale, 1933 (Pulmonata: Camaenidae)
Figure 85. SEM photographs of shell, jaw and radula of Amplirhagada dubitabile n.sp., paratype FMNH 219047: (A) apical whorl viewed from above (scale 200 µm); (B) sculpture on penultimate whorl viewed rectangular from above (scale 200 µm); (C) close-up showing growth lines on last whorl (scale 200 µm); (D) jaw (scale 100 µm); (E) central and inner lateral teeth (scale 20 µm); (F) outer lateral and inner marginal teeth (scale 20 µm).
Figure 1 in The Tumbarumba Basaltic Gem Field, New South Wales: In Relation to Sapphire-Ruby Deposits of Eastern Australia
Figure 1. Distribution of gem-gearing deposits (Co) related to Cainozoic basalts (enclosed areas) and deep leads (dashes) overlying basement rocks, with the Tumut Ponds serpentinite belt (filled areas). Modified from Wagga Wagga 1: 250 000 metallogenic map, showing locations of basalt sample (Nos), thin section (+) and analytical (×) sites, K-Ar basalt dates (Ma) with previous dating (O) and new dates (Z), zircon fission track dating sites (FT-Ma), zircon U/Pb isotope dating sites (U/Pb Ma), likely eruptive sites (Δ) and possible eruptive sites (Δ).
Figure 7 in The Dunbogan L6 Chondrite: A New Meteorite Fall from New South Wales, Australia
Figure 7. Detail of composite sulphide-metal grain showing eutectoid textures (indicative of crystallisation from a melt) between metal phase (white) and troilite (grey). Scale bar 0.1 mm. Plane polarised reflected light, oil immersion.
Figure 9 in The Tumbarumba Basaltic Gem Field, New South Wales: In Relation to Sapphire-Ruby Deposits of Eastern Australia
Figure 9. (a,b) Comparison between trace element concentrations in theoretical Tumbarumba primary magmas, and calculated curves for non-modal batch partial melting. See text for explanation. Each curve represents a different combination of mantle type and bulk trace element composition. PM = primitive mantle (Sun & McDonough, 1989); MM = metasomatised mantle (sample WGBM 15, O'Reilly & Griffin, 1988). Curve increments are listed in the Key, as well as being shown on the diagrams. The method for calcu lating trace element compositions of "primary" magmas is detailed in the text, with mineral/melt partition coefficients for olivine an d cpx being obtained from: Ablay et al. (1998), Ewart & Chappell (1989), Kostopoulos & James (1992), McKenzie & O'Nions (1991), Nielsen (1998) and Panter et al. (1997). Source of partition coefficients used in the melting calculations are: all olivine, cpx, opx, garnet and spinel from Kostopoulos & James (1992), except for the REE (McKenzie & O'Nions 1991); all amphibole and kaersutite from Ionov et al. (1997), except REE for phlogopite (McKenzie & O'Nions, 1991).
Figure 5 in The Dunbogan L6 Chondrite: A New Meteorite Fall from New South Wales, Australia
Figure 5. Back-scattered electron image of portion of the meteorite showing a granular crystalline aggregate of olivine (medium grey), pyroxene (slightly darker grey), plagioclase (black) and metal phase (white). There is a compound rim (fusion crust) of crystallised glass, partly bordered by a thin zone of homogeneous glass towards the bottom of the image. Note how the metal phase has invaded along silicate grain boundaries. Scale bar 100 µm.
Figure 8. Normalised incompatible element plots, Tumbarumba basalts. a in The Tumbarumba Basaltic Gem Field, New South Wales: In Relation to Sapphire-Ruby Deposits of Eastern Australia
Figure 8. Normalised incompatible element plots, Tumbarumba basalts. a—primary-near primary basanites (DR13820, 13835, 14650, 14662); b—primary alkali basalt (DR14639); c—mildly evolved basanites and alkali basalt (DR13828, 14641); d—primary olivine micro-dolerite (DR13822).
Figure 3. Photomicrograph showing enlarged detail from Fig. 2 in The Dunbogan L6 Chondrite: A New Meteorite Fall from New South Wales, Australia
Figure 3. Photomicrograph showing enlarged detail from Fig. 2. Matrix interstitial to possible chondrule fragments
Figure 7 in The Tumbarumba Basaltic Gem Field, New South Wales: In Relation to Sapphire-Ruby Deposits of Eastern Australia
Figure 7. Sub-basaltic paleodrainage related to basalt lava exposures, Tumbarumba-Kiandra region (Yarrangobilly 1:100 000 sheet). Palaeochannels (thick lines) showing direction of drainage flow (arrows) are based on subbasaltic contours (thin lines) shown at 400 m contour intervals.
Figure 2 in The Dunbogan L6 Chondrite: A New Meteorite Fall from New South Wales, Australia
Figure 2. Photomicrograph showing chondrule texture (dark silicates, white sulphide and metal phases) and interstitial
Figure 5 in The Tumbarumba Basaltic Gem Field, New South Wales: In Relation to Sapphire-Ruby Deposits of Eastern Australia
Figure 5. Chemical ratio variation diagram, Tumbarumba corundums. Types as for Fig. 3. TiO2/Ga2O3 against Fe2O3/Cr2O3.
Figure 4. Bermudacaris britayevi n in On the presence of the alpheid shrimp genus Bermudacaris Anker and Iliffe, 2000 (Crustacea: Decapoda: Caridea) in the Pacific Ocean, with description of a new species from Vietnam
Figure 4. Bermudacaris britayevi n. sp., holotype (NHM 2006.1217). (a) Second pereiopod, lateral view; (b) third pereiopod, dorsal view; (c) fifth pereiopod, lateral view; (d) same, propodus and dactylus, mesial view. Scale bar: 1 mm.
Figure 4. Sinobathynella decamera n. g. n in First record of Bathynellacea (Crustacea, Syncarida, Parabathynellidae) in China: a new genus
Figure 4. Sinobathynella decamera n. g. n. sp. (A) Th 8 male (holotype) (lateral external view); (B) Th 8 male (holotype) (caudal view); (C) Th 8 female (paratype) (frontal view); (D) pleotelson and furca (dorsal view); (E) uropod (lateral external view). Scale bar in mm.
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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.