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393 results for “Australian Region”
FIGURE 2. Neighbour-joining tree topology using Kimura 2 in Redescription of Chimaera ogilbyi (Chimaeriformes; Chimaeridae) from the Indo-Australian region
FIGURE 2. Neighbour-joining tree topology using Kimura 2 Parameter distance based on nucleotide sequence divergence in aligned nucleotide NADH2 sequences for Chimaera ogilbyi and closely related species. Outgroup is represented by Rhinochimaera atlantica and Harriotta raleighana. Sequence labels are based on operational taxonomic units defined in paper. GenBank accession numbers follow sequence labels. Scale bar represents 2% K2P distance.
FIGURE 1 in Redescription of Chimaera ogilbyi (Chimaeriformes; Chimaeridae) from the Indo-Australian region
FIGURE 1. Neighbour-joining tree of nucleotide sequence divergence at the barcoding region of the COI using the Kimura two-parameter (K2P) distance generated by BOLD (Barcode of Life Database) for Chimaera ogilbyi and its closest congener, Chimaera argiloba. Individual sequences labelled with the OTU's used in this paper. Scale bar represents 2% K2P distance. GenBank accession numbers are listed.
FIGURE 5 in Redescription of Chimaera ogilbyi (Chimaeriformes; Chimaeridae) from the Indo-Australian region
FIGURE 5. Lateral view of the four OTU's of Chimaera ogilbyi: (A) Hydrolagus lemures; (B) Hydrolagus ogilbyi (CSIRO H 7060-05, female 479 mm BDL); (C) Hydrolagus cf lemures (CSIRO H 7774-02, female 483 mm BDL); and (D) Hydrolagus sp. PNG (NTUM 10333, female 109 mm BDL).
FIGURE 6 in Redescription of Chimaera ogilbyi (Chimaeriformes; Chimaeridae) from the Indo-Australian region
FIGURE 6. Lateral view of juvenile Chimaera ogilbyi from off Victoria highlighting colour variation in juveniles: (A) CSIRO H 3522-07, female 232 mm BDL; (B) CSIRO H 3690-08, female 173 mm BDL.
FIGURE 9 in First record of the genus Ptilocerus in the Australian Region, with the description of two new species (Hemiptera: Heteroptera: Reduviidae)
FIGURE 9. Ptilocerus spangenbergi, paratype female, apex of abdomen dorsal view.[gpc, gonoplac; sp, spermatheca; t9 tergite 9; va8, valvula 8; vf8, valvifer 8].
FIGURE 11 in First record of the genus Ptilocerus in the Australian Region, with the description of two new species (Hemiptera: Heteroptera: Reduviidae)
FIGURE 11. Ptilocerus spangenbergi, paratype male, phallus, lateral view [ba, basal acula; bp, basal plate; dsp, dorsal sclerotized plate; ped, pedicel; stra, apical portion of strut; strb, basal portion of strut].
FIGURE 6 in First record of the genus Ptilocerus in the Australian Region, with the description of two new species (Hemiptera: Heteroptera: Reduviidae)
FIGURE 6. Ptilocerus spangenbergi, paratype female, abdominal venter [Tr, trichome; 3 to 7, abdominal sterna].
FIGURE 2 in First record of the genus Ptilocerus in the Australian Region, with the description of two new species (Hemiptera: Heteroptera: Reduviidae)
FIGURE 2. Ptilocerus hemelytra: a, P. spangenbergi; b, P. papuensis. [ai, inner apical cell; bi, inner basal cell; Cu + AA 1+2 vein; M, vein.]
FIGURE 8 in First record of the genus Ptilocerus in the Australian Region, with the description of two new species (Hemiptera: Heteroptera: Reduviidae)
FIGURE 8. Ptilocerus spangenbergi, paratype female, enlarged part of abdominal tergites 4, 5 and 6 showing scent gland scars.
FIGURE 3 in A revised area taxonomy of phytogeographical regions within the Australian Bioregionalisation Atlas
FIGURE 3. The twenty ABA phytogeographical sub-regions for Australia's land plants (excluding Southern New Guinea). The areas are an approximation of the 100km2 grid cells in González-Orozco, Ebach et al. (2014). As these areas are defined on a numerical approach (like that in the IBRA classification), their monophyly is still unknown. Southern New Guinea is not figured.
FIGURE 2. A in A revised area taxonomy of phytogeographical regions within the Australian Bioregionalisation Atlas
FIGURE 2. A. The raw data from the González-Orozco, Ebach et al. (2014) analysis. B. Corresponding dendrogram that shows the geographic clustering based on species turnover.
FIGURE 4. A in A revised area taxonomy of phytogeographical regions within the Australian Bioregionalisation Atlas
FIGURE 4. A. The raw data from the González-Orozco, Ebach et al. (2014) analysis. B. Corresponding dendrogram that shows the geographical clustering based on species turnover.
FIGURE 1 in A revised area taxonomy of phytogeographical regions within the Australian Bioregionalisation Atlas
FIGURE 1. The five ABA phytogeographical sub-regions for Australia's land plants based on the raw data in González-Orozco, Ebach et al. (2014). The areas are an approximation of the 100km2 grid cells in González-Orozco, Ebach et al. (2014). As these areas are defined on a numerical approach (like that in the IBRA classification), their monophyly is still unknown.
Data from: Regional climate and local-scale biotic acceptance explain native-exotic diversity relationships in Australian annual plant communities
Native and exotic species richness is expected to be negatively related at small spatial scales where individuals interact, and positive at larger spatial scales as a greater variety of habitats are sampled. However, a range of native-exotic richness relationships (NERRs) have been reported, including positive at small scales and negative at larger scales. We present a hierarchical metacommunity framework to explain how contrasting NERRs may emerge across scales and study systems, and then apply this framework to NERRs in an invaded winter annual plant system in south-west Western Australia. We analysed NERRs at increasing spatial scales from neighbourhoods (0.09 m2) to communities (225 m2) to metacommunities (>10 ha) within a multi-level structural equation model. In contrast to many previous studies, native and exotic richness were positively related at the neighbourhood scale and were not significantly associated at larger scales. Heterogeneity in soil surface properties was weakly, but positively, associated with native and exotic richness at the community-scale. Metacommunity exotic richness increased strongly with regional temperature and moisture availability, but relationships for native richness were negative and much weaker. Thus, we show that neutral NERRs can emerge at larger scales due to differential climatic filtering of native and exotic species pools.
Figure 1 in Phthiracarus species (Acari: Oribatida: Phthiracaridae) from New Zealand, with description of a new species, redescription of Phthiracarus pellucidus and a key to 19 described species from the Australian Region
Figure 1. Phthiracarus minutus sp. nov.: (A) lateral view of body (legs removed); (B) prodorsum, dorsal view; (C) sensillus, dorsal view; (D) left side of ventral plate; (E) subcapitulum, palpi removed; (F) palp, antiaxial view; (G) chelicera, antiaxial view; (H) femur I; (I) tibia IV. Scale bars: A, B, D = 100 μm; C, E–I = 50 μm.
Figure 2. Phthiracarus pellucidus Ramsay, 1966 in Phthiracarus species (Acari: Oribatida: Phthiracaridae) from New Zealand, with description of a new species, redescription of Phthiracarus pellucidus and a key to 19 described species from the Australian Region
Figure 2. Phthiracarus pellucidus Ramsay, 1966: (A) lateral view of body (legs removed); (B) prodorsum, dorsal view; (C) right side of ventral plate; (D) mentum of subcapitulum; (E) femur I; (F) tibia IV. Scale bars: A = 100 μm; B–F = 50 μm.
FIGURE 47 in On some Afrotropical Harpalus, with description of two new species, and remarks on Hypharpax australis (Coleoptera: Carabidae): misidentification, mislabeling and introduction to the Australian region
FIGURE 47. Anisochirus madagascariensis (Dejean, 1831) (holotype of A. alluaudi Jeannel, 1946), habitus. Scale bar = 1.0 mm.
FIGURES 33–36. Harpalus fuscoaeneus Dejean, 1929 in On some Afrotropical Harpalus, with description of two new species, and remarks on Hypharpax australis (Coleoptera: Carabidae): misidentification, mislabeling and introduction to the Australian region
FIGURES 33–36. Harpalus fuscoaeneus Dejean, 1929 (Cape of Good Hope). 33, gonocoxite; 34, laterotergite, gonosubcoxite, and gonocoxite; 35, 36, median lobe of aedeagus. Lateral (33, 35), ventral (34) and dorsal (36) views. Scale bar = 0. 5 mm.
FIGURES 45, 46 in On some Afrotropical Harpalus, with description of two new species, and remarks on Hypharpax australis (Coleoptera: Carabidae): misidentification, mislabeling and introduction to the Australian region
FIGURES 45, 46. Hypharpax australis (Dejean, 1829) (45, New Zealand; 46, holotype), habitus. Scale bar = 1.0 mm.
FIGURES 12–19. Harpalus asemus Basilewsky, 1947 in On some Afrotropical Harpalus, with description of two new species, and remarks on Hypharpax australis (Coleoptera: Carabidae): misidentification, mislabeling and introduction to the Australian region
FIGURES 12–19. Harpalus asemus Basilewsky, 1947 (12–15, Lac Dakka; 16, 17, "holotype" from Naivasha; 18, 19, paratype from Amboni). 12, labium; 13, left metacoxa; 14, gonocoxite; 15, laterotergite, gonosubcoxite, and gonocoxite; 16–19, median lobe of aedeagus. Ventral (12, 13, 15), lateral (14, 16, 18), and dorsal (17, 19) views. Scale bars: A = 0.5 mm (12, 14–19), B = 1.0 mm (13).
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Allen Brain Atlas
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International Brain Laboratory public data
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OpenNeuro
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