Development of an RPA-CRISPR/LbaCas12a-Lateral Flow Assay for the Visual Detection of <i>Chrysotila dentata</i> (Haptophyta). [PDF]
Yu J +7 more
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A reappraisal of the genus Rhodomonas (Cryptophyceae)
Phycologia, 1989Rhodomonas baltica, the type species of the controversial genus Rhodomonas (Cryptophyceae), has been re-examined with light and electron microscopy.
David R A Hill, Richard Wetherbee
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Enriching Rotifers with “Premium” Microalgae: Rhodomonas lens
Marine Biotechnology, 2019The nutritional value of the marine cryptophyte Rhodomonas lens for the filter feeder Brachionus plicatilis as well as its biotechnological potential as a source of phycoerythrin (PE) and polyunsaturated fatty acids (PUFA) were evaluated in semi-continuous cultures maintained with different daily renewal rates (RR), from 10% (R10) to 50% (R50) of the ...
Paula Coutinho +2 more
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Vertical niche separation between two closely related planktonic flagellate species (Rhodomonas lens and Rhodomonas minuta v. nannoplanctica) [PDF]
Rhodomonas minuta v. nannoplanctica Skuja and Rhodomonas lens Pascher et Ruttner were found to perform vertical migrations. From sunrise until afternoon they adjust their vertical position to an optimum light-intensity, which is for R. minuta 2.5 times higher than for R. lens.
Sommer, Ulrich
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Phycoerythrin Association with Photosystem II in the Cryptophyte Alga Rhodomonas salina
Biochemistry (Moscow), 2020# Deceased. Cryptophyte algae belong to a special group of oxygenic photosynthetic organisms containing pigment combination unique for plastids - phycobiliproteins and chlorophyll a/c-containing antenna. Despite the progress in investigation of morphological and ecological features, as well as genome-based systematics of cryptophytes, their ...
I N, Stadnichuk +6 more
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Phycobiliprotein diffusion in chloroplasts of cryptophyte Rhodomonas CS24
Photosynthesis Research, 2009Unicellular cryptophyte algae employ antenna proteins with phycobilin chromophores in their photosynthetic machinery. The mechanism of light harvesting in these organisms is significantly different than the energy funneling processes in phycobilisomes utilized by cyanobacteria and red algae.
Tihana, Mirkovic +3 more
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Nutritional value of the cryptophyte Rhodomonas lens for Artemia sp.
Journal of Experimental Marine Biology and Ecology, 2009Abstract Juvenile or adult Artemia sp. are often used as live prey for the rearing of early life stages of some crustacean, fish and cephalopod species. The improvements of both Artemia growth and its biochemical composition are key issues for the suitable use of Artemia biomass in these rearing processes.
Seixas, Pedro +3 more
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Abstract Algae with a more diverse suite of pigments can, in principle, exploit a broader swath of the light spectrum through chromatic acclimation, the ability to maximize light capture via plasticity of pigment composition.
Rachel A. Schomaker +2 more
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Distinctive organization of genes for light-harvesting proteins in the cryptophyte alga Rhodomonas
Gene, 2006Cryptophyte algae contain two kinds of light-harvesting protein, phycobiliproteins and chlorophyll a,c-binding proteins. The beta subunit of the phycobiliprotein phycoerythrin (PE) is encoded in the chloroplast. Genes for the other PE polypeptides are located in the nucleus but little is known of their organization.
M J, Broughton, C J, Howe, R G, Hiller
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Urea metabolism by the marine cryptomonad, Rhodomonas Lens
2010The effect of urea on a marine cryptomonad, Rhodomonas lens, was investigated. Cells from a nitrate enriched, natural sea water medium were acclimated to synthetic sea water with either nitrate (control medium) or urea (experimental medium) as the sole nitrogen source.
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