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20 results for “Great Australian Bight”
Water Body Checklists 2019: Great Australian Bight Species List
Species checklists created using effechecka and modified polygons from IHO. The polygons were reduced in resolution.<p></p>List of species collected from the Great Australian Bight using effechecka and a modified polygon from the International Hydrographic Association. A filter was applied (based on data from WoRMS) to remove all non-marine taxa.
Water Body Checklists: Great Australian Bight Species List
Species checklists created using effechecka and modified polygons from IHO. The polygons were reduced in resolution.<p></p>List of species collected from the Great Australian Bight using effechecka and a modified polygon from the International Hydrographic Association. A filter was applied (based on data from WoRMS) to remove all non-marine taxa.
Figure 2 in Pycnogonids (Arthropoda: Pycnogonida) from the Great Australian Bight, southern Australia, with description of two new species.
Figure 2 Pseudopallene chevron sp. nov. male holotype (SAM E3681): A, trunk, lateral; B, trunk, dorsal; C, trunk, anterior; D, leg 2; E, oviger; F, oviger claw; G, chela exterior; H, chela interior; I, abdomen lateral; J, tarsus and propodus leg 4.
Figure 1 in Pycnogonids (Arthropoda: Pycnogonida) from the Great Australian Bight, southern Australia, with description of two new species.
Figure 1 Parapallene gowlettae sp. nov. female holotype (SAM E3678): A, trunk, dorsal; B, trunk, lateral; C, cephalon, ventral; D, oviger segments 3 and 4; E, oviger; F, leg 1; G, coxae; H, propodus, leg 3; I, chela.
Fig. 5 in A new deep-water Tethya (Porifera, Tethyida, Tethyidae) from the Great Australian Bight and an updated Tethyida phylogeny
Fig. 5 (opposite page). Tethyida COI and 28S maximum-likelihood (RaxML) trees. ML bootstrap supports (1000 bootstrap replicates)> 70 are indicated. After the species name, locality of the specimen is given (when known), followed by the GenBank accession number(s). For 28S, we also indicated the 28S region that was sequenced as well as the first author + date of the publication where the sequence first appeared. Type species of genera are in red boxes while Tethya irisae sp. nov. appears in red.
Fig. 3 in A new deep-water Tethya (Porifera, Tethyida, Tethyidae) from the Great Australian Bight and an updated Tethyida phylogeny
Fig. 3. Tethya irisae sp. nov. spicules. A–B. Straight style/strongyloxeas. C. Subtylostyle. D. Long-rayed oxyspheraster. E. Short-rayed oxyspheraster with small acanthooxyspheraster. F. Acanthooxyspheraster.
Fig. 1 in A new deep-water Tethya (Porifera, Tethyida, Tethyidae) from the Great Australian Bight and an updated Tethyida phylogeny
Fig. 1. Sites where Tethya irisae sp. nov. was collected in the Great Australian Bight, including sites that were sampled where the sponge was not found. All specimens of Tethya irisae sp. nov. were collected along the 1000 m contour. Light shaded polygons show the Australian Commonwealth Marine Reserves. The darker polygon strip is the GAB Marine Park Benthic Protection Zone. The 200 m contour is the edge of the continental shelf. Abbreviations: GABDMP = Great Australian Bight Deepwater Marine Program (MNF 2015); GABRP = Great Australian Bight Research Project (Williams et al. 2018). Cruise SS2010_T02 (Currie & Sorokin 2011).
Fig. 4 in A new deep-water Tethya (Porifera, Tethyida, Tethyidae) from the Great Australian Bight and an updated Tethyida phylogeny
Fig. 4. Comparative sizes and external morphology of species of Tethya Lamarck, 1815. A. Tethya irisae sp. nov., holotype (SAMA S3387). B. Tethya bullae Bergquist & Kelly-Borges, 1991, part of the holotype (AM Z5074). C. Tethya fissurata Lendenfeld, 1888, syntype (AM G.9069) Note: the original photo of T. bullae (Bergquist & Kelly-Borges 1991) shows rooting processes.
Fig. 2. A in A new deep-water Tethya (Porifera, Tethyida, Tethyidae) from the Great Australian Bight and an updated Tethyida phylogeny
Fig. 2. A. Freshly collected specimens (lot SAMA S2096) of Tethya irisae sp. nov. B. Paratype (QM G305000) showing single apical oscule (arrow), and tessellated plate-like polygonal tubercules. C–D. Holotype (SAMA S3387), entire specimen and SEM showing surface tubercules with emerging megascleres. E. Section of UPSZTY 178608, showing the well-developed cortex and cortical canals around the tubercules.
FIGURE 9 in New carnivorous sponges and allied species from the Great Australian Bight
FIGURE 9. Locations of the new species in the Great Australian Bight, with reference to the sampling zones (indicated by the green shaded bounding boxes, OR26, VSMO2 and SZ12), the exploration permits for petroleum regions (indicated by the larger bounding boxes e.g. EPP39) and proximity to the Stromlo-1 well.
FIGURE 4 in New carnivorous sponges and allied species from the Great Australian Bight
FIGURE 4. Abyssocladia oxyasters sp. nov., holotype SAMA S2590. A. Holotype on-deck after collection. B. Upper face of the body and filaments of the holotype. C. Cleistochelae. D. Oxyasters. E. Mycalostyle. F. Magnified ends of the mycalostyle depicted in E. G. Basal style. H. Sigmancistras.
FIGURE 6 in New carnivorous sponges and allied species from the Great Australian Bight
FIGURE 6. Abyssocladia oxyasters sp. nov., holotype SAMA S2590. A. Magnified view of the holotype showing the oxyaster encrusted embryos, spermatocysts or oocytes spheres (arrows) and the arrangement of the mycalostyles. B. Spheres in the endosome surrounded by oxyasters. C. Two magnified spheres (brown colour) encrusted by oxyasters (white colour). D. A dissected sphere.
FIGURE 3. A in New carnivorous sponges and allied species from the Great Australian Bight
FIGURE 3. A. Cross-section of the stem of the Holotype (SAMA S2592) of Nullarbora heptaxia sp. nov. showing the radiating arms. B. Detail of the arms with longitudinal mycalostyles sectioned and the wedges containing the sigmas and anisochelae. C. Paratangential view of the stem, showing the radiating styles and longitudinal styles in the wedges emerging from the longitudinal mycalostyles. D. Prominent longitudinal mycalostyle bundle, with the supporting styles forming filaments on the lower edge. E. Root-like processes, showing the sigmas on the ectosomal surface and the styles underneath in the endosome. F. Filaments showing the ectosome encrusted with anisochelae and sigmas.
FIGURE 8 in New carnivorous sponges and allied species from the Great Australian Bight
FIGURE 8. Guitarra davidconryi sp. nov., holotype SAMA S2161. A. Holotype fixed. B. Placochela. C. Placochelae in various orientations. D. Palmate acanthoisochelae. E. Oxea. F. Magnified ends of the oxea depicted in E. G. Anisoxeote style. H. Magnified ends of the style depicted in G. I. SEM showing the ectosome and the underlying choanosomal skeleton. J. SEM close-up of the ectosomal skeleton showing the sinuous styles, placochelae and the isochelae in situ. K. Detail of a placochela with one alae removed to show the underlying siliceous filaments.
FIGURE 5 in New carnivorous sponges and allied species from the Great Australian Bight
FIGURE 5. Abyssocladia oxyasters sp. nov., A. Upper surface of the sponge body showing the cleistochelae on the exterior of the ectosome, and the oxyasters in the underlying endosome above the mycalostyles. B. Copepods commonly occurring in the endosome with the oxyasters. C. Stem of the holotype showing the cleistochelae on the endosome and the underlying mycalostyles. D. Two filaments showing the abundant sigmancistras and cleistochelae in the ectosome and the underlying mycalostyles in the endosome.
FIGURE 7 in New carnivorous sponges and allied species from the Great Australian Bight
FIGURE 7. Lycopodina hystrix sp. nov., holotype SAMA S2599. A. Holotype on-deck following collection. B. Palmate anisochelae. C. Mycalostyle 1. D. Magnified ends of mycalostyle 1 depicted in C. E. Oxeote style 2. F. Magnified ends of oxeote style 2 depicted in E. G. Basal large style 5. H. Magnified ends of style 5 depicted in G. I. Forceps. J. Basal tylostyle 3. K. Basal small style 4. L. Basal strongyle. M. Sigmancistra. N. Body of paratype SAMA S2600. O. Close up of body of SAMA S2600 showing the vertical bands of styles and the supporting styles of the filaments. P. Base of paratype SAMA S3599 showing the echinating styles protecting the basal attachment.
FIGURE 1. 28S C in New carnivorous sponges and allied species from the Great Australian Bight
FIGURE 1. 28S C-region maximum-likelihood phylogram. Numbers on branches are bootstrap probabilities> 50. Numbers following taxon names are QM collection numbers or Genbank accession numbers in case of previously published taxa. The scale bar depicts substitutions per site. The icons indicate gross morphological types. The chelae on the right column indicate the major chelae types for the generic groupings. The coloured bars indicate those genera previously included within Cladorhiza, separated by morphological differences and oceans.
FIGURE 2. A. Holotype SAMA S2592 in New carnivorous sponges and allied species from the Great Australian Bight
FIGURE 2. A. Holotype SAMA S2592 Nullarbora heptaxia sp. nov. B. Large anisochelae. C. Small anisochelae, D. Large mycalostyle. E. Magnified ends of the mycalostyle depicted in D. F. Small mycalostyle. G. Magnified ends of the mycalostyle depicted in F. H. Large sigma. I. Thin sigma. J. Sigmancistra.
Distribution. Circumpolar in subantarctic waters, primarily between 30° S and 65° S, including the Great Australian Bight, Tasman Sea, and Chatham Is, but as far N as 25° S in the Malvinas Current, 23° S in the Benguela Current, and 12° S in the Humboldt Current. in Delphinidae
Distribution. Circumpolar in subantarctic waters, primarily between 30° S and 65° S, including the Great Australian Bight, Tasman Sea, and Chatham Is, but as far N as 25° S in the Malvinas Current, 23° S in the Benguela Current, and 12° S in the Humboldt Current.
FIGURE 10A–E in Some Hydroids (Cnidaria, Hydrozoa) from the Great Australian Bight in the collection of the South Australian Museum
FIGURE 10A–E. Lytocarpia billardi (Bale, 1914). A, fertile colony. B, hydrothecae. C, hydrotheca, anterior view. D, proximal view of corbula with gonocladium. E, mid-section of corbula.
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