Andrew M. Hosie
Australian Museum
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Featured researches published by Andrew M. Hosie.
Marine Biodiversity | 2016
Christine H. L. Schönberg; Andrew M. Hosie; Jane Fromont; Loisette Marsh; Timothy D. O’Hara
Sponges are important three-dimensional habitats for other organisms such as polychaetes, crustaceans, echinoderms and fish that often live or breed on preferred parts of a sponge, thus reflecting functional relationships (e.g. Koukouras et al. 1995). Most Caulospongia spp. (Demospongiae: Suberitida) have morphologies supportive of epibiosis. They are characterized by an erect axis and basal stalk, with a reticulate body with lumina, or horizontal, disc-like lobes arranged along the axis (Fromont 1998). This tiered morphology led to our field name ‘kebab sponge’ (Fig. 1a–c). We sampled a specimen of Caulospongia pennatula (Lamarck, 1814) at Ningaloo Reef, northwestern Australia, that had wide horizontal surfaces, and on the edges underneath each tier, one or two—never more—porce la in crabs Pis id ia cf . streptochiroides (Johnson, 1970) were found (Fig. 1c–e). Porcelain crabs can be vividly coloured, mimicking the appearance of the surface they live on (Haig 1981). Here they were of a slightly lighter ochre colour than the sponge and thus well camouflaged (Fig. 1d–f). The hollow, lattice-like axis of the sponge was inhabited by Ophiothrix sp. brittlestars, whose bodies were lodged within, with their arms extending onto the lobes, also of a similar colour (Fig. 1g–k). Brittlestars are known to feed on detritus on benthic invertebrate surfaces (Stewart 1998), while porcelain crabs can scavenge or feed on host exudates, but mostly filter the water column using modified mouthparts (Kropp 1981). Presumably, the porcelain crabs colonise the sponge in order to be elevated above the seafloor to gain access to water currents, and may also benefit from the sponge’s feeding currents. We counted 19 crabs (seven males, seven egg-carrying females, five juveniles) and three brittlestars on this sponge. Thus, the morphology of a kebab sponge has microhabitats that offer shelter and possibly enhanced nutrition, while allowing epibionts to be elevated in the water column.
Archive | 2017
Meng-Chen Yu; Gregory A. Kolbasov; Andrew M. Hosie; Tse-Min Lee; B.K. Chan
FIGURE 29. Acasta sulcata. Cirri V (A D), VI (E G) and penis (H J) (ASIZCR 000369). A, Cirrus V; B, serrate setae on anterior ramus; C, sharp denticles on anterior ramus enlarged in rectangle area; D, 3 pairs of setae and denticles on intermediate segments; E, Cirrus VI; F, terminal segment of posterior ramus with serrate setae enlarged in rectangle area; G, 3 pairs of setae on intermediate segments; H, penis; I, long setae on tip; J, vestigial basidorsal point of penis. Scale bars in µm.
Zootaxa | 2016
Andrew M. Hosie; Ana Hara
A new species, Paranaxia keesingi sp. nov., is described based on specimens collected in northern Australia. The new species differs from its only congener, P. serpulifera (Guérin, 1832, in Guérin-Méneville 1829-1837), by several characters including carapace setation, sternal cavities, absence of a subhepatic spine, presence of a sharp spine on the posterodistal angle of the cheliped merus, relatively shorter chelipeds, and longer and more slender ambulatory legs. Morphological separation of the two species is supported by 12s rDNA sequence divergences of 7.4-8.2%. Like P. serpulifera, the newly described species exhibits direct development with females carrying juvenile individuals under the pleon. Both species are sympatric, but Paranaxia keesingi sp. nov. is found in deeper waters than P. serpulifera.
Marine Biodiversity Records | 2012
Andrew M. Hosie
The seas of tropical Australia are of global significance both environmentally and economically. Recent marine invertebrate surveys off the Western Australian coasts have revealed many new records and species. One of these is Podophthalmus nacreus , herein reported from within the Ningaloo Marine Park and thus representing the first record for this species from Australian waters.
Keesing, J.K., Irvine, T.R., Alderslade, P., Clapin, G., Fromont, J., Hosie, A.M., Huisman, J.M. <http://researchrepository.murdoch.edu.au/view/author/Huisman, John.html>, Phillips, J.C., Naughton, K.M., Marsh, L.M., Slack-Smith, S.M., Thomson, D.P. and Watson, J.E. (2011) Marine benthic flora and fauna of Gourdon Bay and the Dampier Peninsula in the Kimberley region of North-Western Australia. Journal of the Royal Society of Western Australia, 94 (2). pp. 285-301. | 2011
J.K. Keesing; T.R. Irvine; P. Alderslade; G. Clapin; Jane Fromont; Andrew M. Hosie; John M. Huisman; J.C. Phillips; K.M. Naughton; Loisette Marsh; Shirley Slack-Smith; D.P. Thomson; J.E. Watson
Archive | 2008
Laith A. Jawad; Shane T. Ahyong; Andrew M. Hosie
Zootaxa | 2008
Andrew M. Hosie; Shane T. Ahyong
Diversity | 2016
Zoe Richards; Lisa Kirkendale; Glenn Moore; Andrew M. Hosie; John M. Huisman; Monika Bryce; Loisette Marsh; Clay Bryce; Ana Hara; Nerida G. Wilson; Susan M. Morrison; Oliver Gomez; Jenelle Ritchie; Corey S. Whisson; Mark Allen; Lee Betterridge; Courtney Wood; Hugh Morrison; Mark Salotti; Glad Hansen; Shirley Slack-Smith; Jane Fromont
Zoological Journal of the Linnean Society | 2016
Noa Simon-Blecher; Andrew M. Hosie; Tamar Guy-Haim; Benny K. K. Chan; Yair Achituv
Biogeosciences Discussions | 2018
Julie Trotter; Charitha Pattiaratchi; Paolo Montagna; Marco Taviani; James L. Falter; Ron Thresher; Andrew M. Hosie; David W. Haig; Federica Foglini; Quan Hua; Malcolm T. McCulloch