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666 results for “Wales”
FIGURE 2. A–E, Pinkfloydia rixi n in The discovery of the orb-weaving spider genus Pinkfloydia (Araneae, Tetragnathidae) in eastern Australia with description of a new species from New South Wales and comments on the phylogeny of Nanometinae
FIGURE 2. A–E, Pinkfloydia rixi n. sp. (male holotype and female paratype); F, P. harveii Dimitrov & Hormiga (form Western Australia, Austin Bay Nat. Res., WAM T98595). Arrow in A and F point out to diagnostic characters. A, F, male palp, ventral. B, male palp, ventral. C, D, dorsal and ectal respectively (arrow, cymbial ectomedial process. E, epigynum, ventral. Abbreviations: C, conductor; CEBP, cymbial ectobasal process; E, embolus; MEA, Metainae embolic process; P, paracymbium; T, tegulum. Scale bars: A, E, 0.1 mm; all other, 0.2 mm.
FIGURE 4 in The discovery of the orb-weaving spider genus Pinkfloydia (Araneae, Tetragnathidae) in eastern Australia with description of a new species from New South Wales and comments on the phylogeny of Nanometinae
FIGURE 4. Optimal topology from the maximum likelihood analysis of the full dataset of Dimitrov et al. (2016), simplified from their figure S3 to include only Tetragnathidae and its closest relatives (a reduced version of the full tree is presented in their figure 2). Values at nodes denote bootstrap support above 50%. Dimitrov et al. (2016) used a standard target-gene approach with the following genes or gene fragments: two nuclear ribosomal genes, namely18S rRNA and 28S rRNA; two mitochondrial ribosomal genes, 12S rRNA and 16S rRNA, the nuclear protein-encoding genes histone H3 and wingless, and the mitochondrial protein-encoding gene cytochrome c oxidase subunit I.
FIGURE 1. A–F, Pinkfloydia rixi n in The discovery of the orb-weaving spider genus Pinkfloydia (Araneae, Tetragnathidae) in eastern Australia with description of a new species from New South Wales and comments on the phylogeny of Nanometinae
FIGURE 1. A–F, Pinkfloydia rixi n. sp. A, B, E, male (holotype); C, D, F, female (paratype). A, C, lateral. B, D, dorsal. E, prosoma, anterolateral. F, prosoma, anterior. Scale bars: all 1.0 mm, except E, F (0.5 mm).
FIGURE 3. A–E, Pinkfloydia rixi n in The discovery of the orb-weaving spider genus Pinkfloydia (Araneae, Tetragnathidae) in eastern Australia with description of a new species from New South Wales and comments on the phylogeny of Nanometinae
FIGURE 3. A–E, Pinkfloydia rixi n. sp. (male holotype and female paratype); F–H, P. harveii Dimitrov & Hormiga (form Western Australia, Austin Bay Nat. Res., WAM T98595). A, male palp, ventral. B, embolic division, ventral. C, paracymbium, ventral. D, epigynum, ventral. E, epigynum (cleared), dorsal. F, male palp, ventral. G, embolic division, ventral. H, paracymbium, ventral. Abbreviations: C, conductor; CEBP, cymbial ectobasal process CEMP, cymbial ectomedial process; E, embolus; MEA, Metainae embolic process; P, paracymbium; S, spermathecae; T, tegulum. Scale bars: A, F, D, 0.2 mm; all other, 0.1 mm.
Supplementary material 1 from: McCormack R (2014) The eastern swamp crayfish Gramastacus lacus sp. n. (Decapoda, Parastacidae) a new species of freshwater crayfish from coastal New South Wales, Australia. ZooKeys 398: 53-67. https://doi.org/10.3897/zookeys.398.7544
Gramastacus lacus specimen data.: Explanation note: Specimen record with locality details for known populations of the eastern swamp crayfish Gramastacus lacus sp. n., in coastal New South Wales.
Figs. 1–3 in Cardiophorus carinatus (Coleoptera: Elateridae), an unusual new species from the Lake Wales Ridge (Florida, USA) and rediscovery of Cardiophorus robustus LeConte, 1853
Figs. 1–3. Cardiophorus carinatus sp. nov. holotype male. 1, 2, habitus; 3, aedeagus, dorsal view. Scale bar = 1 mm.
FIGURE 12 in A new Candonopsini (Ostracoda) genus from subterranean waters of New South Wales (Australia)
FIGURE 12. Map of world distribution of Candonopsini genera and majority consensus of over 100 most parsimonious trees as a result of the cladistic analysis. Colors of circles on the map correspond to genera on the cladistic tree, numbers bellow clades represent support as the result of majority rule search.
FIGURE 2 in A new Candonopsini (Ostracoda) genus from subterranean waters of New South Wales (Australia)
FIGURE 2. SEM of Hancockcandonopsis inachos gen. nov. sp. nov. Female (P.100297): A—whole carapace viewed from the right side; B, RV, lateral view from the outside; C, LV, lateral view from the inside; D—view of a surface cuticular pore with broken seta.
FIGURE 6 in A new Candonopsini (Ostracoda) genus from subterranean waters of New South Wales (Australia)
FIGURE 6. Line drawings of Hancockcandonopsis io gen. nov., sp. nov. Male (P.100299): A—whole carapace; B, C—A1 (first segment on B not illustrated, not all setae illustrated on C); D, Rake-like organ; E—A2; F—right prehensile palp, G—left prehensile palp; H—Md-palp; I—L6; J—basal segment of L6; K—L7; L—hemipenis; M—UR. Scales = 0.1 mm.
FIGURE 5 in A new Candonopsini (Ostracoda) genus from subterranean waters of New South Wales (Australia)
FIGURE 5. SEM of Hancockcandonopsis io gen. nov., sp. nov. A–D, female; E–I, male: A—whole carapace viewed from the right side; B—detail of the dorsal margin; C—surface cuticular pore with seta; D—detail of the surface; E—LV, viewed from the outside; F—RV, viewed from the outside.
FIGURE 11 in A new Candonopsini (Ostracoda) genus from subterranean waters of New South Wales (Australia)
FIGURE 11. Line drawings of Hancockcandonopsis sp. 2. Female (P.100303): A—LV, inside view; B—RV, outside view; C, D—A2; E—L7 (basal segment not illustrated); F—UR; G—UR attachment. Scales = 0.1 mm.
FIGURE 1 in A new Candonopsini (Ostracoda) genus from subterranean waters of New South Wales (Australia)
FIGURE 1. SEM of Hancockcandonopsis inachos gen. nov. sp. nov. Male: A—whole animal inside LV; B—RV, lateral view from the outside; C—hemipenis; D—right prehensile palp.
FIGURE 4 in A new Candonopsini (Ostracoda) genus from subterranean waters of New South Wales (Australia)
FIGURE 4. Line drawings of Hancockcandonopsis inachos gen. nov. sp. nov. A-F, male (P.100296); G, H, female (P.100297): A—L6; B—Zenker organ; C—UR attachment; D—UR; E—hemipenis; F—L7; G—UR; H—UR attachment. Scales = 0.1 mm.
FIGURE 3 in A new Candonopsini (Ostracoda) genus from subterranean waters of New South Wales (Australia)
FIGURE 3. Line drawings of Hancockcandonopsis inachos gen. nov. sp. nov. A, C-I, male (P. 100296); B, J, female (P.100297): A—RV, lateral view from the outside; B, LV, lateral view from the inside; C, A1 (not all setae illustrated on the terminal segment); D, left prehensile palp, E, right prehensile palp; F, Mxl-palp; G—Md-palp; H—A2; I—Rake-like organ; J— A2. Scales = 0.1 mm.
FIGURE 8 in A new Candonopsini (Ostracoda) genus from subterranean waters of New South Wales (Australia)
FIGURE 8. Line drawings of Hancockcandonopsis tamworthi gen. nov. sp. nov. A–C, F–I, L–O, male (P.100300); D, E, J, K, female (P.100301): A—LV, inside view; B—LV, outside view; C—RV, inside view; D—whole carapace viewed form the right side; E—RV, inside view; F—A1 (not all setae on the terminal segment illustrated); G, A2; H—Md-palp; I—Mxl-palp; J—A2; K—L5; L—L6; M—right prehensile palp, N—left prehensile palps; O—L7. Scales = 0.1 mm.
FIGURE 7 in A new Candonopsini (Ostracoda) genus from subterranean waters of New South Wales (Australia)
FIGURE 7. SEM of Hancockcandonopsis tamworthi gen. nov. sp. nov. Female: A—whole animal viewed from the right side (tilted); B—detail of the posterior end; C—detail of the anterior end; D—cuticular pore with seta on the surface.
FIGURE 10 in A new Candonopsini (Ostracoda) genus from subterranean waters of New South Wales (Australia)
FIGURE 10. Line drawings of Hancockcandonopsis sp. 1. Female (P.100302): A—RV, viewed from the inside; B—LV, viewed from the outside; C—A1 (not all setae on the terminal segment illustrated); D—Rake-like organ; E—A2; F—Mxl-palp; G—Md-palp; H—L5; I—L6; J—L7; K—UT and genital segment. Scales = 0.1 mm.
FIGURE 9 in A new Candonopsini (Ostracoda) genus from subterranean waters of New South Wales (Australia)
FIGURE 9. Line drawings of Hancockcandonopsis tamworthi gen. nov. sp. nov. A, B, E, male (P.100300); C, D, female (P.100301): A—UR; B—UR attachment; C—UR and genital field; D—UR attachment; E—hemipenis. Scale = 0.1 mm.
FIGURES 2–7 in A new species of Dinotoperla Tillyard, 1921 from the Shoalhaven Catchment, New South Wales, Australia (Plecoptera: Gripopterygidae)
FIGURES 2–7. Dinotoperla spp., ♂: (2–5) D. cherylae sp. nov.: (2) habitus (hind wings shrivelled); (3, 4) terminalia, lateral, two different specimens; (5) tip of abdomen, dorsal; (6, 7) terminalia, lateral, from Theischinger & Cardale (1987): (6) D. evansi Kimmins; (7) D. uniformis Kimmins.
Rates of expansion of invasive cane toads in New South Wales
<p><span>Geographical variation in abiotic and biotic conditions can significantly affect the rate that an invasive species expands its range. The colonisation of Australia by cane toads (<i>Rhinella marina</i>) has attracted extensive research, but mostly in tropical regions rather than cooler climatic zones. We assembled multiple datasets to characterise the historical spread of toads at their southern (cool-climate) invasion front in north-eastern New South Wales (NSW). Perhaps because toads are relatively easy to find, visual and acoustic surveys appear to be as effective as eDNA-based surveys in detecting the species' presence. Expansion of the toads' range in NSW has occurred through the establishment of satellite populations as well as by growth of the range-core. Overall rates of spread have been more than tenfold lower than on the tropical front (means of <5 km vs. >50 km per year), and in some decades, the toads' southern range has declined rather than expanded. Overall rates of spread since 1970 have accelerated to the south (through coastal habitats), but not to the west (into montane areas). The toads' range has expanded most rapidly in decades with dry, warm weather conditions, but predicted future changes to climate are likely to have only minor effects on rates of toad spread. Understanding historical patterns of toad invasion in NSW can clarify probable future spread, and hence identify priority areas for control programs.</span></p>
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Allen Brain Atlas
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DANDI Archive for NWB datasets
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International Brain Laboratory public data
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OpenNeuro
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