Nutrition of Sea Anemones
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Cited by (44)
Evolutionarily conserved aspects of animal nutrient uptake and transport in sea anemone vitellogenesis
2022, Current BiologyCitation Excerpt :Instead, our analyses of bead uptake assays and marker gene expression show that these activities are enriched in the tentacle gastrodermis as well as the IT, SGE, and TT mesenterial regions. In corals and symbiotic sea anemones (e.g., Exaiptasia), carbon-fixing Symbiodinium sp. dinoflagellates locate mainly to the tentacle gastrodermis and the IT and SGE regions.23,55 These parallels confirm the importance of these regions in nutrient acquisition in sea anemones and corals and raise questions about the symbionts’ ability to permanently populate these highly endocytic regions in some anthozoan species but not in others.
Experimental observation of microplastics invading the endoderm of anthozoan polyps
2020, Marine Environmental ResearchCitation Excerpt :It could be because endodermal cells would coincidentally catch and phagocytose microspheres that are flown by the water current within the body. The horizontal section of the body of Exaiptasia shows fluorescent microspheres located in the zone of phagocytosis (Van-Praët, 1985), in mesenterial filaments that have two lateral lobes distal to the median lobe (Fig. 4E and F). Microspheres did not enter oocytes at this stage (Fig. 4E).
The hemisessile lifestyle and feeding strategies of Iosactis vagabunda (Actiniaria, Iosactiidae), a dominant megafaunal species of the Porcupine Abyssal Plain
2015, Deep-Sea Research Part I: Oceanographic Research PapersCitation Excerpt :Neither feeding behaviour appeared to be modified by the presence of a layer of phytodetritus on the seabed, which was observed in the images between 17 June and 17 December 2012. Many deep-sea anemones are thought to be suspension feeders, and have been observed to modify their feeding behaviour to capture particles efficiently (Lampitt and Paterson, 1987; Van Praët, 1985). Burrowing actiniarians have been thought to exploit dissolved organic content in the sediment (Ammons and Daly, 2008).
The relationship between UV-irradiance, photoprotective compounds and DNA damage in two intertidal invertebrates with contrasting mobility characteristics
2015, Journal of Photochemistry and Photobiology B: BiologyCitation Excerpt :It is important to highlight this long lag-time, referred by Newman et al. (2000) as “co-acclimation”, as the levels of MAA found at higher trophic levels can depend upon the levels of UV-R that primary producers are exposed to during a previous temporal window [55]. A. tenebrosa is an omnivorous and opportunistic suspension feeder, feeding on phytoplankton, zooplankton and detritus [56]. Considering its feeding ecology, it is most likely that the six month lag-time in maximal MAA accumulation in A. tenebrosa is caused by both the time required for the organisms consumed to synthesize large quantities of MAA, and by an additive effect of the multiple lag-times associated with the different trophic levels between the primary producers and A. tenebrosa.
Trophic relationships and UV-absorbing compounds in a Mediterranean medio-littoral rocky shore community
2012, Journal of Experimental Marine Biology and Ecology