Find research datasets worth reusing

opennotspecifiedDec 2008View details →

FIGURES 23–28 in Paroster baylyi sp. n., P. ursulae sp. n. (Col. Dytiscidae, Hydroporinae) and the water beetle diversity of pan-gnammas on isolated granite outcrops in the Mallee of south-western Australia

FIGURES 23–28. Habitats of Paroster baylyi sp. n. and P. ursulae sp. n., various pan-gnammas: 23) Type locality of P. ursulae sp. n., granite outcrop 80 km WSW Coolgardie {10}; 24) Stephan Gottwald searching for P. ursulae sp. n. {10}; 25) Type localities of P. baylyi sp. n., "Bilya Rock", 25 km ENE Morawa {1}; 26, 27) "Camel Soak", 31 km E Perenjori {2}; 28) "Rockpools", 10 km E Wubin {3}.

FIGURE 5 in A new species of Eremiascincus (Reptilia: Squamata: Scincidae) from the Great Sandy Desert and Pilbara Coast, Western Australia and reassignment of eight species from Glaphyromorphus to Eremiascincus

FIGURE 5. Dorsum (A) and flank (B) of preserved holotype of Eremiascincus musivus sp. nov., (WAM R165266). Total length = 138.2mm. Photograph—R. Heitzmann.

FIGURE 4 in A new species of Eremiascincus (Reptilia: Squamata: Scincidae) from the Great Sandy Desert and Pilbara Coast, Western Australia and reassignment of eight species from Glaphyromorphus to Eremiascincus

FIGURE 4. Drawings of head and dorsal scalation of the digits of the pes (left side) of holotype of Eremiascincus musivus

FIGURE 2 in A new species of Eremiascincus (Reptilia: Squamata: Scincidae) from the Great Sandy Desert and Pilbara Coast, Western Australia and reassignment of eight species from Glaphyromorphus to Eremiascincus

FIGURE 2. Neighbour-joining tree of mitochondrial cytochrome b nucleotide sequences from Eremiascincus and selected outgroups. Branches in grey had NJ and MP non-parametric bootstrap proportions> 70%. (R prefix: WAM; N prefix: NTM.). Arrow indicates the clade that includes all members of Eremiascincus and the 'G'. isolepis species-group.

FIGURE 3 in A new species of Eremiascincus (Reptilia: Squamata: Scincidae) from the Great Sandy Desert and Pilbara Coast, Western Australia and reassignment of eight species from Glaphyromorphus to Eremiascincus

FIGURE 3. Map showing the distribution of E. fasciolatus (open triangles), E. isolepis (shaded circles), and E. musivus sp. nov. (solid squares) based on vouchered museum specimens.

FIGURE 1 in A new species of Eremiascincus (Reptilia: Squamata: Scincidae) from the Great Sandy Desert and Pilbara Coast, Western Australia and reassignment of eight species from Glaphyromorphus to Eremiascincus

FIGURE 1. Map showing the collection locations of E. fasciolatus (open triangles), E. isolepis (shaded circles), and E. musivus sp. nov. (solid squares) examined for molecular genetic analysis.

FIGURE 7 in A new species of Eremiascincus (Reptilia: Squamata: Scincidae) from the Great Sandy Desert and Pilbara Coast, Western Australia and reassignment of eight species from Glaphyromorphus to Eremiascincus

FIGURE 7. Habitat of E. musivus sp. nov. 20km ENE Karratha, Pilbara coast, northern Western Australia. Sloping dune with buffel grass vegetation on red siliceous sand. Both the holotype (WAM R165266) and two paratypes (WAM R165264–5) were collected from this site. Photograph—Biota Environmental Sciences Pty Ltd.

FIGURE 1 in Platycephalus orbitalis, a new species of flathead (Teleostei: Platycephalidae) collected from western Australia

FIGURE 1. Dorsal (upper) and lateral (lower) views of Platycephalus orbitalis, sp. nov., CSIRO H 6349-04, 267.4 mm SL, holotype, northwest of Rottnest Island, Western Australia.

FIGURE 4 in Platycephalus orbitalis, a new species of flathead (Teleostei: Platycephalidae) collected from western Australia

FIGURE 4. Relationships of orbital diameter (circle) and interorbital width (square) (% head length) versus standard length (mm). Solid symbol, Platycephalus orbitalis, sp. nov.; open symbol, P. marmoratus. "H" indicates holotype.

FIGURE 3 in Platycephalus orbitalis, a new species of flathead (Teleostei: Platycephalidae) collected from western Australia

FIGURE 3. Ventrolateral views of head of Platycephalus orbitalis, sp. nov., CSIRO H 6350-02, 236.3 mm SL, paratype, northwest of Rottnest Island, Western Australia (A) and Platycephalus marmoratus, AMS I.25665-026, 184.6 mm SL, northeast of Yamba, New South Wales, Australia, showing the interopercle and the skinny sensory tubes arising from the infraorbitals and preopercle.

FIGURE 2 in Platycephalus orbitalis, a new species of flathead (Teleostei: Platycephalidae) collected from western Australia

FIGURE 2. Lateral views of iris lappet (right eye) (A) and dorsal view of head (B) in Platycephalus orbitalis, sp. nov., CSIRO H 6350-02, 236.3 mm SL, paratype, northwest of Rottnest Island, Western Australia.

FIGURE 5 in Morphological and molecular assessment of the Diplodactylus savagei species complex in the Pilbara region, Western Australia, with a description of a new species

FIGURE 5. Holotype of Diplodactylus galaxias sp. nov. (WAM R113624, an adult female). Photograph – B. Bush.

FIGURE 4 in Morphological and molecular assessment of the Diplodactylus savagei species complex in the Pilbara region, Western Australia, with a description of a new species

FIGURE 4. Summary of phylogenetic results of the ND2+tRNA data set of Diplodactylus savagei based on parsimony and Bayesian analyses. A parsimony phylogram is shown but the results for the Bayesian analysis were similar. Numbers above the branches are parsimony branch lengths and numbers below the branches are parsimony bootstrap values and Bayesian posterior probabilities (bold), respectively.

FIGURE 1 in Morphological and molecular assessment of the Diplodactylus savagei species complex in the Pilbara region, Western Australia, with a description of a new species

FIGURE 1. Distribution of Diplodactylus savagei populations in the Pilbara and Ashburton regions of Western Australia. Key: blue circles—D. savagei; red circles—D. galaxias sp. nov.; stars—genotyped individuals.

FIGURE 2 in Morphological and molecular assessment of the Diplodactylus savagei species complex in the Pilbara region, Western Australia, with a description of a new species

FIGURE 2. Photographs of live Diplodactylus galaxias sp. nov. (above) from the Burrup Peninsula and D. savagei (below) from near the type locality. Photographs – B. Maryan.

FIGURE 3 in Morphological and molecular assessment of the Diplodactylus savagei species complex in the Pilbara region, Western Australia, with a description of a new species

FIGURE 3. Variation of dorsal pattern within Diplodactylus galaxias sp. nov. (top row) and D. savagei (bottom row).

FIGURES 7–8 in An endemic predaceous water beetle from the Murchison River in Western Australia— Antiporus kalbarriensis sp. n. (Coleoptera: Dytiscidae, Hydroporinae, Hydroporini)

FIGURES 7–8. Habitat of A. kalbarriensis sp.n., 7) View over the Murchison River from Hawk´s Head Lookout; 8) Backwater pool at Murchison River near Ross Graham Lookout (Loc. 19/183). Photos: L. Hendrich.

FIGURE 6 in An endemic predaceous water beetle from the Murchison River in Western Australia— Antiporus kalbarriensis sp. n. (Coleoptera: Dytiscidae, Hydroporinae, Hydroporini)

FIGURE 6. Map showing the two collecting localities of A. kalbarriensis sp.n. (black dots) in Western Australia.

FIGURES 1–4 in An endemic predaceous water beetle from the Murchison River in Western Australia— Antiporus kalbarriensis sp. n. (Coleoptera: Dytiscidae, Hydroporinae, Hydroporini)

FIGURES 1–4. Habitus of 1) Antiporus bakewellii (male), 2) A. kalbarriensis sp.n. (male) (scale bar 1 mm). Lateral (a) and ventral views (b) of median lobes of aedeagi of 3) A. bakewellii and 4) A. kalbarriensis sp.n. (scale bar 0.4 mm). Photos: L. Hendrich.

FIGURE 8 in A new species of Litoria (Anura: Hylidae) with a highly distinctive tadpole from the north-western Kimberley region of Western Australia

FIGURE 8. Comparison of call structures in Litoria aurifera sp. nov. and Litoria meiriana. A = L. aurifera: 1) advertisement call with following squeak 2) grind with following squeak. B = L. meiriana, advertisement call with following squeak. In all cases the upper trace is an oscillogram and the lower trace a sound spectrogram. Spectrogram traces have been optimised to illustrate frequency bands and modulation and do not necessarily reflect analytical settings reported in the text. Bar represents 0.1 seconds.