Cyclotella: Difference between revisions
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{{AFC comment|1=Almost certainly notable. However the article lacks any inline sources, please see [[WP:ERB|the easy referencing guide]] on how to properly cite sources. It also could use [[WP:WIKILINK|internal links]] to other Wikipedia articles. Also, the list of species is too exhaustive and should probably just include those that we have an article on. [[User:CaptainEek|<span style="color:#6a1f7f">'''CaptainEek'''</span>]] <sup>[[User talk:CaptainEek|<span style="font-size:82%"><span style="color:#a479e5">''Edits Ho Cap'n!''</span></span>]]</sup>[[Special:Contributions/CaptainEek|⚓]] 09:16, 2 May 2020 (UTC)}} |
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'''Cyclotella''' |
'''Cyclotella''' |
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Family: Stephanodiscaceae |
Family: Stephanodiscaceae |
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== List of Species == |
== List of Species == |
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Cyclotella wulfiae B.Meyer & H.Håkansson |
Cyclotella wulfiae B.Meyer & H.Håkansson |
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Cyclotella xizangensis Huang |
Cyclotella xizangensis Huang |
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<ref name="contributionstocanadianbiology1922">Bailey, L.W. (1922). Diatoms from the Quill Lakes, Saskatchewan, and from Airdrie, Alberta.Contributions to Canadian Biology 11(1): 157-165.</ref> |
<ref name="contributionstocanadianbiology1922">Bailey, L.W. (1922). Diatoms from the Quill Lakes, Saskatchewan, and from Airdrie, Alberta.Contributions to Canadian Biology 11(1): 157-165.</ref> |
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<ref name="phytotaxa2018">Van de Vijver, Bart & Dessein, Steven. (2018). Cyclotella deceusteriana, a new centric diatom species (Bacillariophyta) from the sub-Antarctic Region. Phytotaxa. 333(1).</ref> |
<ref name="phytotaxa2018">Van de Vijver, Bart & Dessein, Steven. (2018). Cyclotella deceusteriana, a new centric diatom species (Bacillariophyta) from the sub-Antarctic Region. Phytotaxa. 333(1).</ref> |
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== References == |
== References == |
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Revision as of 09:16, 2 May 2020
This article, Cyclotella, has recently been created via the Articles for creation process. Please check to see if the reviewer has accidentally left this template after accepting the draft and take appropriate action as necessary.
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- Comment: Almost certainly notable. However the article lacks any inline sources, please see the easy referencing guide on how to properly cite sources. It also could use internal links to other Wikipedia articles. Also, the list of species is too exhaustive and should probably just include those that we have an article on. CaptainEek Edits Ho Cap'n!⚓ 09:16, 2 May 2020 (UTC)
Cyclotella
Introduction
Cyclotella is a genus of diatoms often found in oligotrophic environments, both marine and fresh water.It is in the family Stephanodiscaceae and the order Thalassiosirales. The genus was first discovered in the mid 1800s and since then has become an umbrella genus for nearly 100 different species, the most well-studied and the best known being C. meneghiniana. Despite being among the most dominant genera in low-productivity environments, it is relatively understudied (13). Cyclotella’s habitat has traditionally been described as low-productivity mesotrophic or oligotrophic freshwater environments, but,with C. meneghiniana appearing in warm, nutrient-rich environments as well as low-productivity environments, it has become unclear whether there is an archetypal aquatic setting for this genus.
Etymology
The name Cyclotella is derived from the greek term kyklos , meaning “circle.” While “circle” can be used to describe many diatoms, Cyclotella sp . are all circular and have a girdle band arrangement that makes the structure of the organism resemble a wheel (3).
History of Knowledge
The genus Cyclotella was described in 1838 by Louis Alphonse de Brébisson, a French botanist and photographer (5). Brébisson shares the credit of discovering the genus with Friedrich Traugott Kützing, a German pharmacist, botanist, and phycologist. This is in spite of the fact that neither one of these scientists ever worked together or even came in contact with one another. Kützing was a pioneer in microbial science, demonstrating the difference between diatoms and desmids in a German research paper in 1833. In 1849, Kützing published a comprehensive work describing 6000 different algae species, including the most known species of Cyclotella today- C. meneghiniana (9). As Brébisson describes in the 1838 publication Flore de Normandie , Cyclotella “has a more or less elongated ovoid shape, it is swollen from both sides, and when its center is diaphanous, it resembles two tubular frustules united by their vertices ( translated from French ).” Many databases, texts, and members of the scientific community refer to the entire genus of Cyclotella as Cyclotella (Kützing) Brébisson (9). This full genus title indicates that Kützing initially discovered species of a genera and put them into another genus, which was then altered by Brébisson who took some of those same species and placed them within the Cyclotella genus. Upon distinguishing Cyclotella from other diatom species, over the next 180 years there have been nearly 100 different species of the genus described and taxonomically accepted.
Habitat and Ecology
Species of Cyclotella are most often found in oligotrophic environments. They are most often found in freshwater environments, but can also be found in brackish and marine habitats as well. Many of the freshwater species have been found throughout the United States in stagnant waters (7). Species that are most commonly found in marine environments are C. caspia, C. litoralis, C. meneghiniana, C. striata, and C. stylorwn . In a study performed in1974, it was determined that the optimal osmolar concentration for growth in C. meneghiniana, likely the best studied species of Cyclotella , in a medium of 0.5 Osm/L (14). For references, the osmolarity of seawater is on average, 1 Osm/L (3). Marine diatoms and algae in general tend to flourish in higher osmolar concentrations due to the increased presence of carbon dioxide and nutrients to be utilized as sustenance, but the low-solute environment Schobert found to be most optimal for the growth of C. meneghiana is consistent with most Cyclotella being found in low-productivity mesotrophic to oligotrophic environments. Species of cyclotella have been found in harsh aquatic environments such as coldwater regions in northern regions of the world (7). Another study by Van de Vijver and Dessein found a new species of Cyclotella, C. deceusteriana, in the sub-antarctic region (19). One of the only ecological characteristics of Cyclotella that is consistent among most of its species is the fact that they are found in stagnant or near-stagnant waters and are immobile.Beyond that, there is a lot of variation. Many of the Cyclotella species that have been studied have been shown to be found in aquatic environments that are either slightly or highly alkaline. C. distinguenda is known to prefer alkaline waters, and C. gamma has been found in lakes that have a pH range of 7.2 to 7.8. Nutrient concentration in the habitats of Cyclotella sp. varies. C.sensu lato has been described as a dominant member of both mesotrophic and oligotrophic environments (13), as many are, but both C. atomus and C. meneghiniana are found to prefer nutrient-rich environments. Temperature ranges vary between species as well; It was mentioned earlier that C. deceusteriana was discovered in sub-antarctic regions, and C. gamma and C.quillensis have been found in the Northern United States and Saskatechwan, respectively. C. atomus , on the other hand, has been found in warmer lake sediments in California. Colonization patterns of Cyclotella sp. are relatively uniform, in the sense that most of them are solitary organisms. C. meneghiniana, however, has been described to occasionally live in colonies (11). Of course, the preference of nutrient rich environments of C. meneghiniana conflicts the findings mentioned earlier.
Morphology
The size of Cyclotella varies by species. C. atomus has a diameter of 5-7 um, whereas C. quillensis can have a diameter up to 24-54 um (1). The most studied species of the genus, C. meneghiniana, has a diameter of 6-18 um. Like all other diatoms, Cyclotella spp. have transparent cell walls. They form biosilica shells using dissolved silicon and carbon acquired from various carbon partitioning pathways. Other materials Cyclotella uses for cell wall biosynthesis are semiconductor metal oxides and extracellular fibers made of chitin. The primary allomorph of chitin that is found most often in diatoms is α-chitin, but Cyclotella and Thalassiosira contain the β-chitin allomorph. Poly N-acetyl glucosamine chains are oriented in a parallel manner and contain intermolecular hydrogen bonds. The bound chains and hydrogen bonds between molecules form a paracrystalline matrix of β-chitin. This matrix contains pores large enough for whatever solvent is available in the aquatic ecosystem in which Cyclotella sp. reside in to enter the matrix and swell the structure (10). Diatoms are unique in the sense that they have valves, created by the two halves of a diatom’s test. Cyclotella sp. are no exception, as they form the upper and lower portions of the wall. The girdle bands that support the valves are thin strips of silica and ultimately circumscribe the cell. Each valve has two central tubes traversing its surface, meeting in the middle at the central nodule. The morphology of the Cyclotella cell wall and its valves are important traits that distinguish species from each other. Each species has tangentially undulated valves all throughout their cell wall, regardless of their length, width, and concentration (17). Frustules contain areolas, that is orifices that mediate the passage of nutrients and exudates across the cell wall for sustenance. The characteristics of these areolas are thought to cause differences in mechanical strength and metabolism among different cells (15). Like other monoraphid diatoms, Cyclotella frustules can be characterized as heterovalvar. The cell wall and cell membrane are what are known to this point as what distinguishes Cyclotella from other diatom genera. The cytoplasmic components are assumed to be similar to what other diatoms have. In C. meneghiniana, there are granules scattered and attached at the chromatophore all throughout the cytoplasm. The genus is photosynthetic like all other diatoms, so all species contain one or many pyrenoids traversed by a thylakoid membrane and a chloroplast within the endoplasmic reticulum. Dictyosomes are also present in the cytoplasm, being in close proximity to the nucleus and making up the golgi complex. The nucleus has been found to change locations in C. meneghiniana throughout generations as a result of the cell diameter gradually decreasing (8).
Life Cycle
C. meneghiniana splits in half during asexual reproduction. The halves are separated by the distinction between the two valves for each cell. Each of the two offspring that arise as a result of cell division have one of the two valves from the parent cell. During the separation of the parent cell, the cytoplasm forms the two offspring valves that will end up complementing the inherited parent valves in the offspring once reproduction is complete.The offspring valves are formed within a silica deposition vesicle that gradually grows larger and separates into two different offspring valves. The parent valves become a template for the offspring valves being formed, with patterns of striae and the central cell area also being inherited. However, perfect complementation does not occur every generation, which can lead to consecutive generations inheriting a deformed parental valve that was initially a deformed offspring valve in a previous generation. The likeness of the offspring valves to the parental valves is determined by the flexibility of the girdle bands; the other factors are unknown (15). Vegetative cell division occurs over hundreds of generations for C. meneghiniana , with the cell diameters of the offspring organisms becoming gradually smaller. Regardless of the flexibility of the girdle bands and functionality of vegetative cell division, there is a point where the diameter of C. meneghiniana offspring dips below a certain threshold diameter. It has been observed that at this point, species-specific environmental stimuli induces the change from asexual reproduction to sexual reproduction.
Sexual reproduction occurs with gametes being formed upon reaching the threshold. During the process of meiosis, male Cyclotella cells release sperm and the female Cyclotella cells develop and egg from within the two valves. Following fertilization of the egg, a zygote is formed from the union of the two gametes. The zygote then develops into an auxophore (2n). Once sexual reproduction is complete, the diameter of the offspring is larger and beyond the threshold once again, allowing for the production of another few hundred generations through the asexual division of auxophores.
Biochemistry
Despite there being very little known about the internal morphology of Cyclotella , there there have been a sizable number of studies done on the genus’ molecular biology and genome. C. cryptica has been identified to be an oleaginous diatom, with a great deal of triacylglycerol. Its genome has been identified to contain many methylated repetitive sequences, which are supposed to function as a way of limiting the occurrences of DNA transposition. C. cryptica was discovered to have a very efficient lipid metabolism, which is needed for its high triacylglycerol production (18). Another study conducted in 1992 indicates that C. meninghiana has the largest genome and abundance of sequence repeats of any diatom species up to this specific study (2). The C. meninghiana chloroplast genome alone has a vast amount of equimolar inversion isomers. Many of these isomers differ in their orientation to their single copy sequence counterparts. The species, according to the findings, still has some prokaryotic and land plant gene clusters as well as operons. In comparison to many other diatoms and plant chloroplast studies, C. meninghiana has a diversely rearranged gene order for single copy regions in its genome.
Fossil Records
Fossils of Cyclotella are not too commonly found, however there have been a few species found fossilized in freshwater ecosystems. Fossil assemblages have been found in glacial and interglacial segments. Regarding trophic levels, they have been found in oligotrophic and mesotrophic rivers in Europe and Mediterranean regions. The frequent discovery of C. distinguenda fossils led to a consensus that they generally have an undulated central area. A sample of C. distinguenda was found at the Agios Floros fen, Southwest Peloponnese, Greece. The fossilized sample was dated to 5700 to 5300 years ago. Support for the recognition of a new diatom species, C. paradistinguenda, was proposed after looking through the sample of C. distinguenda (20). C. paradistinguenda was dated back to 4600 years ago. Distinctions between the two species can also be described in the differences in stratigraphic distributions between the two, as C. paradistinguenda was found in an upper organic sequence of the sample compared to C. distinguenda (20). Another sample of Cyclotella was found at Lake Petén-Itzá, lowland Guatemala. The newfound diatom species were found fossilized morphologically distinct from other Cyclotella species (21). One of the species was named C. petenensis. The other species was named C. cassandrae , characterized by its elliptically shaped valve paired with its coarse striae. Most notably it has a scattered ring of central fultoportulae (21). Discovering fossils is not often a credible enough way to determine a new species within the phylum of diatoms, given that determining underlying mechanisms based on morphological variability is unreliable. It’s best to use both morphological and paleoecological data obtained from samples- the two are often difficult to obtain just from fossils (20).
Scientific Classification
Domain: Eukayota
Superphylum: Heterokonta
Phylum: Bacillariophyta
Class: Coscinodiscophyceae
Order: Thalassiosirales
Family: Stephanodiscaceae
List of Species
Cyclotella abnormis Cleve-Euler
Cyclotella actinocyclus (Ehrenberg) Kützing
Cyclotella actinopleurata Clerici
Cyclotella aegaea A.Economou-Amilli
Cyclotella affinis (Grunow) Houk, R.Klee & H.Tanaka
Cyclotella affinis Makarova & Genkal
Cyclotella africana Rabenhorst
Cyclotella agassizensis Halkansson & Kling
Cyclotella alchichicana Oliva, Lugo, Alcocer & Cantoral
Cyclotella aliquantula Hohn & Hellermann
Cyclotella alvarniensis (Wuthrich) Straub & Aboal
Cyclotella ambigua Grunow
Cyclotella americana Kützing
Cyclotella americana Fricke
Cyclotella andancensis A.Ehrlich
Cyclotella andina E.Theriot, H.J.Carney & P.J.Richerson
Cyclotella antiqua W.Smith
Cyclotella arctica Genkal & Kharitonov
Cyclotella arentii Kolbe
Cyclotella areolata Hustedt
Cyclotella armenica Loginova & Pirumova
Cyclotella asiatica Brun
Cyclotella asterocostata B.Q.Lin, S.Q.Xie & S.X.Cai
Cyclotella astraea Kützing
Cyclotella atlantica (Ehrenberg) Ralfs
Cyclotella atmosphaerica Ralfs
Cyclotella atomus Hustedt
Cyclotella austriaca (M.Peragallo) Hustedt
Cyclotella azigzensis R.J.Flower, F.Gasse & H.Håkansson
Cyclotella bachmannii Meister
Cyclotella baicalensis Skvortzov & Meyer
Cyclotella balatonis Pantocsek
Cyclotella baltica (Grunow) H.Håkansson
Cyclotella bastowii J.R.Carter
Cyclotella bavarica R.Klee, R.Schmidt & J.Müller
Cyclotella bella A.W.F.Schmidt
Cyclotella berguisensis Ehrlich
Cyclotella berolinensis Ehrenberg
Cyclotella bifacialis Jurilj
Cyclotella bituminosa Hustedt
Cyclotella bodanica Eulenstein ex Grunow
Cyclotella bodanica-comta (Ehrenberg) Kützing
Cyclotella bomba Serieyssol
Cyclotella bradburyi Khursevich & Fedenya
Cyclotella calae Azpeitia Moros
Cyclotella caspia Grunow
Cyclotella cassandrae Paillès & Sylvestre
Cyclotella castracanei Brun
Cyclotella castracanei Eulenstein ex Fricke
Cyclotella catenata (J.Brun) Bachmann
Cyclotella cavita Stoermer & Kreis
Cyclotella cavitata Tofilovska, S., Cvetkoska, A., Jovanovska, E., Ognjanova-Rumenova, N. & Z.Levkov
Cyclotella centripetalis Aleshinskaya & Pirumova
Cyclotella cesatii Castracane
Cyclotella ceylonica Holsinger
Cyclotella chaetoceras Lemmermann
Cyclotella changhai J.-X.Xu & J.P.Kociolek
Cyclotella chantaica Kuzmina & S.I.Genkal
Cyclotella charetonii Héribaud
Cyclotella choctawhatcheeana Prasad
Cyclotella cleve-euleriana Palik
Cyclotella cocconeiformis (Grunow) Amossé
Cyclotella comata (Her.) Kützing
Cyclotella comensis Grunow
Cyclotella compta Kützing
Cyclotella comta Kützing
Cyclotella comtaeformica Khursevich
Cyclotella concentrica Meneghini
Cyclotella convexa (Ehrenberg) Kutzing
Cyclotella cornuta Kutzing
Cyclotella corona V.V.Mukhina
Cyclotella coscinodiscus Kützing
Cyclotella costei Druart & Straub
Cyclotella crassa Tynni
Cyclotella cretica J.John & Economou-Amilli
Cyclotella crucigera Pantocsek
Cyclotella cryptica Reimann, J.C.Lewin & Guillard
Cyclotella cubiculata E.A.Sar, I.Sunesen & A.S.Lavigne
Cyclotella curvistriata J.Y.Chen & H.Z.Zhu
Cyclotella cyclopuncta Håkansson & J.R.Carter
Cyclotella dahurica M. Kachaeva
Cyclotella dallasiana W.Smith
Cyclotella deceusteriana Van de Vijver & Dessein
Cyclotella delicatissima J.R.Carter
Cyclotella delicatula Hustedt
Cyclotella dendrochaera Ralfs
Cyclotella denticulata Kützing
Cyclotella desikacharyi A.K.S.K.Prasad
Cyclotella discostelliformica Kociolek & Khursevich
Cyclotella distincta Khursevich
Cyclotella distinguenda Hustedt
Cyclotella dives (Ehrenberg) Kützing
Cyclotella dubia Hilse
Cyclotella dubia Fricke
Cyclotella elentarii Alfinito & Tagliaventi
Cyclotella elgeri Hustedt
Cyclotella elymaea Economou-Amilli
Cyclotella eriensis V.Houk, R.Klee & H.Tanaka
Cyclotella estonica Laugaste & Genkal
Cyclotella exigua H.Håkansson
Cyclotella facetia Hohn & Hellerm.
Cyclotella ferrazae Cholnoky
Cyclotella fimbriata Castracane
Cyclotella flammea Pantocsek
Cyclotella florida Voight
Cyclotella fottii Hustedt
Cyclotella fourtanierae Kociolek
Cyclotella foveolata Khursevich & Fedenya
Cyclotella frigida Cleve Euler
Cyclotella furcigera Nygaard
Cyclotella gamma Sovereign
Cyclotella gigantea Edwards
Cyclotella glabriuscula (Grunow) Håkansson
Cyclotella glomerata H.Bachmann
Cyclotella gordonensis H.J.Kling & Håkansson
Cyclotella gothica Cleve- Euler
Cyclotella gracilis T.A.Nikiteeva & Y.V.Likhoshway
Cyclotella graeca (Kützing) Ralfs
Cyclotella granulata Kulumbaeva & Genkal
Cyclotella guignardi Héribaud
Cyclotella hakanssoniae Wendker
Cyclotella hannaites VanLandingham
Cyclotella hellae T.-P.Chang & C.Steinberg
Cyclotella hilseana Rabenhorst
Cyclotella hinganica Skvortzov
Cyclotella hinziae V.Houk, C.König & R.Klee
Cyclotella hispanica K.T.Kiss, E.Hegewald, & Ács
Cyclotella hongkongensis Skvortzov
Cyclotella horstii S.Genkal & M.Kulikovskiy
Cyclotella hubeiana J.Y.Chen & H.Z.Zhu
Cyclotella hustedtii Jurilj
Cyclotella hyalina Colditz
Cyclotella idahica Khursevich & Kociolek
Cyclotella indistincta Kociolek
Cyclotella insolita Hagelstein
Cyclotella intermedia V.Houk, Klee & H.Tanaka
Cyclotella iranica T.Nejadsattari, S.Kheiri, S.Spaulding & M.Edlund
Cyclotella iridioides Manguin ex Kociolek & Reviers
Cyclotella iris Brun & Héribaud-Joseph
Cyclotella irregularis Grunow
Cyclotella iwatensis H.Tanaka
Cyclotella iyengaria Rao & Awasthi
Cyclotella jonesii R.B.McLaughlin
Cyclotella juriljii Rački
Cyclotella juriljii Skvortzov
Cyclotella kansasensis G.D.Hanna
Cyclotella kansasica Hanna
Cyclotella kathmanduensis T.Hayashi
Cyclotella katiana S.Sala & J.J.Ramírez
Cyclotella kelloggii Hanna
Cyclotella kinea A.Economou-Amilli
Cyclotella kisselevii O.Korotkevich
Cyclotella kitabayashii H.Tanaka
Cyclotella kohsakaensis H.Tanaka & H.Kobayasi
Cyclotella krammeri Håkansson
Cyclotella kuetzingiana Chauvin
Cyclotella kuetzingiana Thwaites
Cyclotella kurdica Håkansson
Cyclotella lacunarum Hustedt
Cyclotella lacus-karluki Manguin ex Kociolek & Reviers
Cyclotella ladogensis Cleve-Euler
Cyclotella laevis (Ehrenberg) Kützing
Cyclotella laevissima Van Goor
Cyclotella lemanensis (O.Müller) Lemmerman
Cyclotella ligata Manguin
Cyclotella ligustica Kützing
Cyclotella litoralis Lange & Syvertsen
Cyclotella longirimoportulata E.Morales, S.F.Rivera & Ector
Cyclotella lossevae L.P.Loginova
Cyclotella lucens (Hustedt) Simonsen
Cyclotella lucernensis Bachmann
Cyclotella lundii Devlin
Cyclotella mahoodii Kociolek & Khursevich
Cyclotella major (Kützing) Rabenhorst
Cyclotella mammilla Kützing
Cyclotella marginata Castracane
Cyclotella marina (Tanimura Nagumo & Kato) Aké-Castillo, Okolodkov & Ector
Cyclotella mascarenica Klee, Houk & Bielsa
Cyclotella mauchaiana Palik
Cyclotella mauchiana Palik
Cyclotella maxima Kützing
Cyclotella meduanae H.Germain
Cyclotella melnikiae S.I.Genkal & Bondarenko
Cyclotella melosiroides (Kirchner) Lemmermann
Cyclotella meneghiniana Kützing
Cyclotella mesoleia (Grunow) Houk, Klee & H.Tanaka
Cyclotella metochia N.Ognjanova-Rumenova
Cyclotella michiganiana Skvortzow [Skvortzov]
Cyclotella minima Barber & Carter
Cyclotella minuscula (Jurilj) A.Cvetkoska
Cyclotella minuta (Skvortzov) Antipova
Cyclotella minutula Kützing
Cyclotella miyiensis J.Z.Qi & J.R.Yang
Cyclotella multipunctata Serieyssol
Cyclotella naegelii Meneghini
Cyclotella nana Hustedt
Cyclotella narochanica S.I.Genkal & T.M.Mikheeva
Cyclotella neocaledonica Manguin ex Kociolek & Reviers
Cyclotella nevadica Khursevich & Kociolek
Cyclotella nimuensis Huang
Cyclotella notata E.I.Loseva
Cyclotella nuda Hajós
Cyclotella obliquata Y.Z.Qi & J.R.Yang
Cyclotella ocellata Pantocsek
Cyclotella oligactis Ralfs
Cyclotella omarensis (Kuptsova) Loseva & Makarova
Cyclotella operculata (C.Agardh) Brébisson
Cyclotella oregonica Kociolek & Khursevich
Cyclotella oregonica Ralfs
Cyclotella orientalis J.H.Lee, J.Chung & T.Gotoh
Cyclotella ornata (Skvortzov) R.J.Flower
Cyclotella ovalis Fricke
Cyclotella ozensis (H.Tanaka & T.Nagumo) H.Tanaka
Cyclotella paleo-ocellata H.Vossel & B.Van de Vijver
Cyclotella palustris S.I.Genkal & Kulikovskiy
Cyclotella pantanelliana Castracane
Cyclotella papillosa O'Meara
Cyclotella paradistinguenda Katrantsiotis & Risberg
Cyclotella paraocellata A.Cvetkoska, P.B.Hamilton, N.Ognjanova-Rumenova & Z.Levkov
Cyclotella parvula L.P.Loginova
Cyclotella patagonica (Ehrenberg) Kützing
Cyclotella paucipunctata Grunow
Cyclotella pelagica Grunow
Cyclotella perforata Héribaud-Joseph
Cyclotella pertenuis Bailey
Cyclotella peruana Kützing
Cyclotella petenensis Sylvestre, Paillès & J.Escobar
Cyclotella physoplea Kützing
Cyclotella picta Kützing
Cyclotella pingualuitii Black & Edlund
Cyclotella planctonica Brunnthaler
Cyclotella pliostelligera Tanaka & Nagumo
Cyclotella plitvicensis Hustedt
Cyclotella polymorpha B.Meyer & Håkansson
Cyclotella praekinea A.Economou-Amilli
Cyclotella praekuetzingiana V.V.Mukhina
Cyclotella praeminuta Khursevich
Cyclotella praetermissa J.W.G.Lund
Cyclotella pratii Toman
Cyclotella pravissima Giffen
Cyclotella prespanensis A.Cvetkoska, P.B.Hamilton, N.Ognjanova-Rumenova & Z.Levkov
Cyclotella proshkinae A.P.Jousé & V.V.Mukhina
Cyclotella pseudocomensis W.Scheffler
Cyclotella pseudokansasica Khursevich & Kociolek
Cyclotella pseudonana T.P.Chang
Cyclotella pseudostelligera Hustedt
Cyclotella pulchella L.W.Bailey
Cyclotella pumila Grunow
Cyclotella punctata W.Smith
Cyclotella pygmaea Pantocsek
Cyclotella quadriiuncta (Schroeter) Hustedt
Cyclotella quadrijuncta (Schröter) Keissler
Cyclotella quillensis L.W.Bailey
Cyclotella radiata Brightwell
Cyclotella radiosa (Grunow) Lemmermann
Cyclotella rectangula (Kützing) Ralfs
Cyclotella reczickiae Khursevich & L.P.Loginova
Cyclotella regina Mann
Cyclotella rheinholdii Reichelt
Cyclotella rhomboideo-elliptica Skuja
Cyclotella rossii Håkansson
Cyclotella rota (Ehrenberg) Kützing
Cyclotella rotula Kützing
Cyclotella satsumaensis H.Tanaka & Houk
Cyclotella scaldensis Muylaert & Sabbe
Cyclotella schambica Aleshinskaya & Pirumova
Cyclotella schroeteri Lemmermann
Cyclotella schumannii (Grunow) H.Håkansson
Cyclotella scotica Kützing
Cyclotella scrobicula Aleshinskaya & Pirumova
Cyclotella seratula Hohn & Hellerman
Cyclotella servant-vildaryae Mukhina
Cyclotella sevillana Deby
Cyclotella sevilleana Deby
Cyclotella sexnotata Deby
Cyclotella sexpunctata Deby
Cyclotella shanxiensis S.-Q.Xie & Y.-Z.Qi
Cyclotella shengxianensis Huang in Huang & Cai Xie & Qi
Cyclotella sibirica Skabichevskij
Cyclotella sinensis (Ehrenberg) Ralfs
Cyclotella sjabatjakkensis Cleve-Euler
Cyclotella skadariensis Jerkovic
Cyclotella socialis Schütt
Cyclotella sollevata Tofilovska, S., Cvetkoska, A., Jovanovska, E., Ognjanova-Rumenova, N. & Z.Levkov
Cyclotella spinosa Schum.
Cyclotella stellaris Aleshinskaya & Pirumova
Cyclotella stelligera (Cleve & Grunow) Van Heurck
Cyclotella stelligeroides Hustedt
Cyclotella stengella Prescott
Cyclotella stipata Frenguelli
Cyclotella stoermeri Khursevich & Kociolek
Cyclotella strelnikovae S.I.Genkal & Yarushina
Cyclotella striata (Kützing) Grunow
Cyclotella strisignata Grunow
Cyclotella stylorum Brightwell
Cyclotella styriaca Hustedt
Cyclotella subsalina Grunow
Cyclotella substelligera H.P.Gandhi
Cyclotella substylorum Archibald
Cyclotella sudanensis (R.F.Bastow) G.Reid & D.M.Williams
Cyclotella superba Fricke
Cyclotella szakalensis Grunow ex Pantocsek
Cyclotella tasmanica E.Y.Haworth & P.A.Tyler
Cyclotella tataënsis Palik
Cyclotella tecta Håkansson & R.Ross
Cyclotella temperei Brun
Cyclotella tempereiformica Khursevich
Cyclotella temperiana L.P.Loginova
Cyclotella tenuistriata Hustedt
Cyclotella terryana Tempère & Peragallo
Cyclotella texta H.Håkansson & R.Ross
Cyclotella thienemanni Jurilj
Cyclotella tibetana Hustedt
Cyclotella transylvanica Pantocsek
Cyclotella trichonidea A.Economou-Amilli
Cyclotella tripartita Håkansson
Cyclotella tuantianensis Huang
Cyclotella tuberculata Makarova & Loginova
Cyclotella tubulosa Khursevich & Kociolek
Cyclotella tuncaica Nikiteeeva, Likhoshway & Pomazkina
Cyclotella umbilicata (Ehrenberg) Ralfs
Cyclotella undata Kützing
Cyclotella undulata Bodeanu
Cyclotella undulata Harting
Cyclotella utahensis C.L.Graeff, Kociolek & S.R.Rushford
Cyclotella vaetteri Cleve-Euler
Cyclotella venusta (Ehrenberg) Ralfs
Cyclotella verrucosa Jerkovic & Cado
Cyclotella virihensis Cleve-Euler
Cyclotella vorticosa A.Berg
Cyclotella widerkehrii Werner
Cyclotella woltereckii Hustedt
Cyclotella wuetrichiana Druart & Straub
Cyclotella wulfiae B.Meyer & H.Håkansson
Cyclotella xizangensis Huang
References
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- ^ Bourne, C.E.M. (1992). Chloroplast DNA structure, variation and phylogeny in closely related species of Cyclotella. ProQuest Dissertations Publishing.
- ^ Brébisson, [L.] A. de (1838). Considérations sur les diatomées et essai d'une classification des genres et des espèces appartenant à cette famille, par A. de Brébisson, auteur de la Flore de Normandie, etc. pp. [i], [1]-20, [4, err.]. Falaise & Paris: Brée l'Ainée Imprimeur-Libraire; Meilhac.
- ^ Crawford, B.J., Burke, R.D. (2004). Development of Sea Urchins, Ascidians, and Other Invertebrate Deuterostomes: Experimental Approaches. Methods in Cell Biology. 74(1). 411-441.
- ^ Håkansson H. (2002). A compilation and evaluation of species in the genera Stephanodiscus, Cyclostephanos and Cyclotella with a new genus in the family Stephanodiscaceae. Diatom Research. 17(1): 1-139.
- ^ Harvey, B.P., Agostini, S., Kon, K., Wada, S., Hall-Spencer, J.M. (2019). Diatoms Dominate and Alter Marine Food-Webs When CO2 Rises. Diversity. 11(12). 242.
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- ^ Hoops, H.J., Floyd, G.L. (1979). Ultrastructure of the centric diatom, Cyclotella meneghiniana: vegetative cell and auxospore development. Phycologia. 18(4). 424-435.
- ^ Kützing, F.T. (1844). Die kieselschaligen Bacillarien oder Diatomeen. Nordhausen. 30. 1-152
- ^ LeDuff, P., & Rorrer, G. L. (2019). Formation of extracellular β-chitin nanofibers during batch cultivation of marine diatom Cyclotella sp. at silicon limitation. Journal of Applied Phycology, 31(6), 3479–3490.
- ^ Lowe, R.L. (1975). Comparative ultrastructure of the valves of some Cyclotella species (Bacillariophyceae) Journal of Phycology. 11(4): 415-424.
- ^ Round, F.E., Crawford, R.M. & Mann, D.G. (1990). The diatoms. Biology and morphology of the genera. Cambridge University Press, Cambridge.
- ^ Saros, J.E., Anderson, N.J. (2015). The ecology of the planktonic diatom Cyclotella and its implications for global environmental change studies. Biol Rev Camb Philos Soc. 90(2). 522-41.
- ^ Schobert, B. (1974). The influence of water stress on the metabolism of diatoms I. Osmotic resistance and proline accumulation in Cyclotella meneghiniana. Zeitschrift für Pflanzenphysiologie. 74(2). 106-120.
- ^ Shirokawa, Y., Shimada, M. (2016). Cytoplasmic inheritance of parent–offspring cell structure in the clonal diatom Cyclotella meneghiniana. Proceedings of the Royal Society B. 283(1842).
- ^ Spaulding, S., Edlund, M. (2008). Cyclotella. In Diatoms of North America. Retrieved April 02, 2020, from https://diatoms.org/genera/cyclotella
- ^ Tesson, B., Hildebrand, M. (2010). Dynamics of silica cell wall morphogenesis in the diatom Cyclotella cryptica: Substructure formation and the role of microfilaments. Journal of Structural Biology. 169(1). 62-74.
- ^ Traller, J.C., Cokus, S.J., Lopez, D.A. et al. (2016). Genome and methylome of the oleaginous diatom Cyclotella cryptica reveal genetic flexibility toward a high lipid phenotype. Biotechnol Biofuels. 9(258).
- ^ Van de Vijver, Bart & Dessein, Steven. (2018). Cyclotella deceusteriana, a new centric diatom species (Bacillariophyta) from the sub-Antarctic Region. Phytotaxa. 333(1).