References [ 11 ]
Kana R, Prasil O & Mullineaux CW (2009) Immobility of phycobilins in the thylakoid lumen of a cryptophyte suggests that protein diffusion in the lumen is very restricted. FEBS Letters 583: 670-674.
Suggett DJ, Moore CM, Hickman AE & Geider RJ (2009) Interpretation of fast repetition rate (FRR) fluorescence: Signatures of phytoplankton community structure versus physiological state. Marine Ecology - Progress Series 376: 1-19.
Suggett DJ, MacIntyre HL & Geider RJ (2004) Evaluation of biophysical and optical determinations of light absorption by photosystem II in phytoplankton Limnology and Oceanography: Methods 2: 316-332.
DOI: none
Kana R, Kotabova E, Sobotka R & Prasil O (2012) Non-photochemical quenching in cryptophyte alga Rhodomonas salina is located in chlorophyll a/c antennae. PLoS ONE 7(1): e29700.
Kana R, Kotabova E & Prasil O (2013) Presence of flexible non-photochemical quenching in cryptophytes (Rhodomonas salina. In: Photosynthesis Research for Food, Fuel and the Future Springer Berlin Heidelberg: pp 489-492.
DOI: none
Cheregi O, Kotabová E, Prásil O, Schröder WP, Kana R & Funk C (2015) Presence of state transitions in the cryptophyte alga Guillardia theta. Journal of Experimental Botany 66: 6461-6470.
West R, Kesan G, Trsková E, Sobotka R, Kana R, Fuciman M & Polívka T (2016) Spectroscopic properties of the triple bond carotenoid alloxanthin. Chemical Physics Letters 653: 167-172.
Serive B, Nicolau E, Bérard JB, Kaas R, Pasquet V, Picot L & Cadoret JP (2017) Community analysis of pigment patterns from 37 microalgae strains reveals new carotenoids and porphyrins characteristic of distinct strains and taxonomic groups. PLoS ONE : e0171872.
Robert R, Vignier J & Petton B (2017) Influence of feeding regime and temperature on development and settlement of oyster Ostrea edulis (Linnaeus, 1758) larvae Aquaculture Research 48: 4756-4773.
Yang EC, Noh JH, Kim S & Choi DH (2020) Plastid-encoded gene comparison reveals usefulness of atpB, psaA, and rbcL for identification and phylogeny of plastid-containing cryptophyte clades Phycologia -: -.
Novotny JP, Chughtai AA, Kostrouchová M, Kostrouchová V, Kostrouch D, Kassák F, Kana R, Schierwater B, Kostrouchová M & Kostrouch Z (2017) Trichoplax adhaerens reveals a network of nuclear receptors sensitive to 9-cis-retinoic acid at the base of metazoan evolution. PeerJ 5: e3789.
Division/Phylum: Cryptophyta Class: Cryptophyceae Order: Pyrenomonadales

Note: for strains where we have DNA barcodes we can be reasonably confident of identity, however for those not yet sequenced we rely on morphology and the original identification, usually made by the depositor. Although CCAP makes every effort to ensure the correct taxonomic identity of strains, we cannot guarantee that a strain is correctly identified at the species, genus or class levels. On this basis users are responsible for confirming the identity of the strain(s) they receive from us on arrival before starting experiments.
For strain taxonomy we generally use AlgaeBase for algae and Adl et al. (2019) for protists.

Culture media, purity and growth conditions:
Medium: ASW; Bacteria and other organisms present; maintained by serial subculture; contains small colourless flagellate in low numbers
Attributes
Authority(Wislouch) Hill & Wetherbee 1989
IsolatorButcher (1954)
Collection Site Fleet Head, Old River, River Roach, Essex, England, UK
Climatic Zone Temperate
Notes Re-acquired December 2013; This strain only seems to like to grow in ASW medium made with freshwater soil extract.
Axenicity Status Bacteria and other organisms present
Area Europe
Country UK
Environment Brackish
GMO No
In Scope of Nagoya Protocol No
ABS Note Collected pre Nagoya Protocol. No known Nagoya Protocol restrictions for this strain.
Collection Date c 1954
Original Designation RC74, BC 4/1
Pathogen Not pathogenic: Hazard Class 1
Strain Maintenance Sheet
Toxin Producer Not Toxic / No Data
Type Culture No
Taxonomy WoRMS ID 106316

CCAP 978/27

Rhodomonas salina