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1 etazoan Nematostella vectensis (an anthozoan cnidarian).
2  members of five new genera (2 sponges and 3 cnidarians).
3  of eumetazoans (bilaterians + ctenophores + cnidarians).
4 mily in vertebrates and the Shal family in a cnidarian.
5 ll as an MtCK sequence from a basal metazoan cnidarian.
6 ng genes demonstrate that Buddenbrockia is a cnidarian.
7 log CnNK-2 from Hydra vulgaris, a freshwater cnidarian.
8 e quite different from those of copepods and cnidarians.
9  to the stinging structures (nematocysts) in cnidarians.
10 ephalopod mollusks, arthropods, and cubozoan cnidarians.
11 notype arose independently in protosomes and cnidarians.
12 g before the split between the Bilateria and Cnidarians.
13 , and that herpes-like viruses are common in Cnidarians.
14 nine and tryptophan tRNAs, as is typical for cnidarians.
15 of polarity in non-bilaterian forms, such as cnidarians.
16 ypical for arthropods, are also now found in cnidarians.
17 mal-stress sensitivity in symbiotic algae of cnidarians.
18  affect gene expression and gene function in cnidarians.
19  genetic tools for corals or closely related cnidarians.
20 ionship between bilaterians, placozoans, and cnidarians.
21 s, but not in the COI and ND5 genes of other cnidarians.
22 ilateria and the directive axis in anthozoan cnidarians.
23  a repeat landscape similar to that of other cnidarians.
24 erved across all animals, first appearing in cnidarians.
25 a distinctive life-cycle stage of medusozoan cnidarians.
26 sporter are vastly up-regulated in symbiotic cnidarians.
27 tial for corals and other sterol-auxotrophic cnidarians.
28 r, detectable in echinoderms, nematodes, and cnidarians.
29  has been elusive, a close relationship with cnidarians, a group that includes corals, sea anemones,
30 st and symbiont cells of the model symbiotic cnidarian Aiptasia (Exaiptasia pallida) when colonized w
31   In this study we describe two genes from a cnidarian, Aiptasia pallida, that are homologous to key
32         The mechanism by which this critical cnidarian-algal symbiosis is lost remains poorly underst
33 s at a time when sequencing efforts in other cnidarians allow for multi-species comparisons.
34 dual intracellular/extracellular function in cnidarians, an early nonbilaterian group.
35 ound in vertebrates, predates the bilaterian-cnidarian ancestor.
36 ly interpreted as the preserved gastrulae of cnidarian and bilaterian metazoans can alternatively be
37 s across 15 major phyla, including the basal Cnidarian and Ctenophora phyla.
38 , yet we know very little about how the host cnidarian and its dinoflagellate endosymbionts communica
39 ral true hedgehog gene, the newly identified cnidarian and lophotrochozoan inteins may be orthologous
40 vation, allowing us to reconstruct ancestral cnidarian and metazoan chromosomal blocks, consisting of
41  subfamily channel subunits coassembled with cnidarian and mouse Shaker subunits, but not with cnidar
42  and arthropod, but not in RNAs from several cnidarian and poriferan species, Saccharomyces cerevisia
43  from Cnidaria, raising the possibility that cnidarian and sophisticated triploblastic eyes arose ind
44 onary origins of these pathways within early cnidarians and across animal phyla more broadly.
45 zoan assemblies, confirms that myxozoans are cnidarians and are a sister taxon to P. hydriforme.
46                              Present in both cnidarians and bilaterians, neuropeptides represent an a
47 belong to a 'eumetazoan' clade that includes cnidarians and bilaterians, with sponges as the earliest
48 NQ currents evolved before the divergence of cnidarians and bilaterians.
49 the IKr phenotype predates the divergence of cnidarians and bilaterians.
50 gence of sponges from the lineage leading to cnidarians and bilaterians.
51  which appeared in a late common ancestor of cnidarians and bilaterians.
52 uences differing greatly between poriferans, cnidarians and bilaterians.
53 e divergence of ctenophores and sponges from cnidarians and bilaterians.
54 served wound response predating the split of cnidarians and bilaterians.
55 nce of a variety of marine organisms, mostly cnidarians and ctenophores, is carried out by Ca(2+)-dep
56        The mutualistic endosymbiosis between cnidarians and dinoflagellates is mediated by complex in
57 mach content analysis confirmed predation on cnidarians and gelatinous organisms.
58 tionary strategy for lens crystallins to the cnidarians and indicates that the putative primordial sa
59 d a peptidergic identity with those found in cnidarians and protostomes and more broadly share muscle
60 bottom water likely prevents colonization by cnidarians and sponges, resulting in fewer taxa than dee
61                            Symbioses between cnidarians and symbiotic dinoflagellates (Symbiodinium)
62 ean warming is causing the symbioses between cnidarians and their algal symbionts to breakdown more f
63 further show that PCGF5, a gene conserved in cnidarians and vertebrates but lost in all other studied
64 rebilaterian groups (placozoan, sponges, and cnidarians), and some basal bilaterians.
65                                 Ctenophores, cnidarians, and bilaterians underwent independent bouts
66 lved in a common ancestor of the placozoans, cnidarians, and bilaterians.
67 , creatine kinase (CK), is found in sponges, cnidarians, and both deuterostome and protostome groups
68  are present in certain protozoans, sponges, cnidarians, and both lophotrochozoan and ecdysozoan prot
69 escent Protein (GFP) was originally found in cnidarians, and later in copepods and cephalochordates (
70 sequence identity from arthropods, mollusks, cnidarians, and nematodes.
71 c characters unite sponges with bilaterians, cnidarians, and placozoans in a monophyletic clade to th
72 e conservation of synteny among bilaterians, cnidarians, and sponges and use comparative analysis to
73 dially symmetric animals, which includes the cnidarians, and the bilaterally symmetric animals, which
74 depend upon a functional symbiosis between a cnidarian animal host (the coral) and intracellular phot
75      Corals are holobionts that comprise the cnidarian animal host and a diverse community of bacteri
76                                              Cnidarians are a disparate and ancient phylum, encompass
77                                              Cnidarians are emerging model organisms for cell and mol
78                                              Cnidarians are generally regarded as diploblastic animal
79 n Current Biology, the Hox-like genes of two cnidarians are interpreted as evidence that the 'Hox sys
80                                              Cnidarians are known for the remarkable plasticity of th
81 hog ligand domains, suggesting that to date, cnidarians are the earliest branching metazoan phylum to
82                                              Cnidarians are the only non-bilaterian group to evolve c
83 f biofluorescence in some animals, including cnidarians, arthropods, and cartilaginous and ray-finned
84 tion of S. purpuratus, were compared against cnidarians, arthropods, urochordates, and vertebrates.
85  important and essential to corals and other cnidarians as phytosymbionts, but their photosystems had
86 d some past studies to infer ctenophores and cnidarians as sister.
87                                              Cnidarians, as early-branching metazoans, provide a crit
88 derm and endomesoderm formation in anthozoan cnidarians, ascidians, and echinoderms.
89 ampling within the genus Hydra, a freshwater cnidarian at the focal point of diverse research in rege
90               Here, we describe a new fossil cnidarian-Auroralumina attenboroughii gen.
91                                           In cnidarians, axial patterning is not restricted to embryo
92       Besides shedding light on an aspect of cnidarian behavior, these results root associative learn
93  and hint genes may have been present in the cnidarian-bilaterian ancestor.
94 ne (EH) and bursicon originated prior to the cnidarian-bilaterian split, whereas ecdysis-triggering h
95 a the medusa maximally deploys the ancestral cnidarian-bilaterian transcription factor gene complemen
96 Porifera and calculate sponge/eumetazoan and cnidarian/bilaterian divergence times by using both dist
97 least 600-700 million years-since before the cnidarian/bilaterian divergence-with a high-affinity bin
98 taining sequences from sponges, ctenophores, cnidarians, bilaterians, and diverse animal relatives.
99 n ancestor of ctenophores and parahoxozoans (cnidarians, bilaterians, and placozoans).
100 minate the role of specific genes in shaping cnidarian biodiversity in the present day and in the dis
101 eginning to see the genomic underpinnings of cnidarian biology.
102 ant insights into the cellular mechanisms of cnidarian bleaching under different environmental stress
103 scular worm increases the known diversity in cnidarian body plans and demonstrates that a muscular, w
104 to 70% for some sessile epifaunal organisms (cnidarians, bryozoans).
105 egulatory subunits were present in ancestral cnidarians, but have continued to diversity at a high ra
106 fluorescence have focused on marine animals (cnidarians, cartilaginous and ray-finned fishes) but we
107                   Molecular information on a cnidarian catalase and/or peroxidase is, however, limite
108 ility, we reconstructed the GRNs that define cnidarian cell types.
109 n Nematostella vectensis, a model system for cnidarian circadian biology.
110  closure of epithelial wounds in vivo in the cnidarian Clytia hemisphaerica (Clytia) indicating that
111 s of body axis development in embryos of the cnidarian Clytia hemisphaerica, we have uncovered a simp
112 fed mainly on crustaceans and teleosts, with cnidarians comprising only 16% of the consumed prey.
113 ects demonstrate that even distantly related Cnidarians contain numerous herpes-like viral genes, lik
114                                              Cnidarians (corals, anemones, jellyfish and hydras) are
115 s are the explosive stinging cells unique to cnidarians (corals, jellyfish, etc).
116                                              Cnidarians (corals, sea anemones, and "jellyfish") diver
117                                              Cnidarians (corals, sea anemones, hydroids, and jellyfis
118                 A decrease in the density of cnidarians could lead to harmful ecological events, such
119 us on basal animal lineages such as sponges, cnidarians, ctenophores and placozoans.
120 scent groups may be cultured, including some cnidarians, ctenophores, and brittle stars, but those us
121 ranches of the animal kingdom - bilaterians, cnidarians, ctenophores, sponges and placozoans - are co
122 y, we initiated a cDNA library screen of the cnidarian, Cyanea capillata.
123 f either SmCa(v)beta A or SjCa(v)beta with a cnidarian (CyCa(v)1) or mammalian (Ca(v)2.3) Ca(2+) chan
124            Corals comprise a biomineralizing cnidarian, dinoflagellate algal symbionts, and associate
125 ans or their potential role in regulation of cnidarian-dinoflagellate mutualisms.
126  control of the symbiont cell cycle in novel cnidarian-dinoflagellate symbioses.
127 compounds from recent omics-based studies of cnidarian-dinoflagellate symbiosis and discuss the signa
128                                          The cnidarian-dinoflagellate symbiosis is of huge importance
129 stablished model system for the study of the cnidarian-dinoflagellate symbiosis, were colonized with
130  inter-partner nutritional fluxes within the cnidarian-dinoflagellate symbiosis.
131 ay an important role in the establishment of cnidarian-dinoflagellate symbiosis.
132  a model for studying the molecular basis of cnidarian disease and immunity.
133 in a host-specific fashion when expressed in cnidarian embryos.
134 gnaling provide differential inputs into the cnidarian endomesodermal gene regulatory network (GRN) a
135                           In bilaterians and cnidarians, epithelial cell-polarity is regulated by the
136 s that has already been made in the realm of cnidarian evolutionary genomics by creating a central co
137                                CnidBase, the Cnidarian Evolutionary Genomics Database, is a tool for
138 panies significant upgrades to CnidBase, the Cnidarian Evolutionary Genomics Database.
139 culated a symbiont-free (aposymbiotic) model cnidarian (Exaiptasia diaphana: "Aiptasia") with either
140 ting RNAs in jellyfish revealing a conserved cnidarian feature, and evidence for tissue-specific micr
141                                              Cnidarian fluorescent protein (FP) derivatives such as G
142 anula are generally considered the ancestral cnidarian forms, in Clytia the medusa maximally deploys
143  as well as to further expand the dataset of cnidarian genes for comparative genomics and evolutionar
144   With the completion of the first sequenced cnidarian genome, genome comparison tools have been adde
145                         It is now known what cnidarian genomes, given 500 million years, are capable
146 omparative evolutionary framework with other cnidarian genomes.
147 togenome-based phylogeny including all major cnidarian groups, sponges, and placozoans.
148 mmon ancestor of cnidarians, or the earliest cnidarians had a medusa life stage, which was subsequent
149 ry neuron known as the concentric hair cell, cnidarians have evolved diverse mechanoreceptors from hy
150                               Unfortunately, cnidarians have thus far been relatively intractable to
151 mbined with a draft genome assembly from the cnidarian host cells of the same species, we identified
152                          Here we show that a cnidarian host uses nitrogen limitation as a primary mec
153 flagellate endosymbiont Symbiodinium and its cnidarian hosts (e.g. corals, sea anemones) are the foun
154 noflagellates (genus Symbiodinium) and their cnidarian hosts (e.g. corals, sea anemones) is the found
155 aled that free-living forms likely colonised cnidarian hosts initially, and switching between differe
156                      In oligotrophic waters, cnidarian hosts rely on symbiosis with their photosynthe
157                             Corals and other cnidarians house photosynthetic dinoflagellate symbionts
158                                          The cnidarian Hydra is a simple metazoan with well-character
159                    Recent discoveries in the cnidarian Hydra show that components of the innate immun
160 re, we provide experimental evidence that in cnidarian Hydra the Hippo pathway regulates the formatio
161               We have achieved this with the cnidarian Hydra vulgaris, using calcium imaging of genet
162  genes expressed during gametogenesis in the cnidarian Hydra vulgaris, we isolated a cDNA encoding Le
163 lcium signals from individual neurons in the cnidarian Hydra vulgaris.
164                               The freshwater cnidarian Hydra was first described in 1702 and has been
165 sociated with closely related species of the cnidarian Hydra.
166               In basal metazoans such as the cnidarians Hydra magnipapillata and Nematostella vectens
167 e, hydra metalloproteinase 2 (HMP2) from the Cnidarian, Hydra vulgaris.
168                                          The Cnidarian, hydra, is an appealing model system for study
169    Although MACs are lethal to larvae of the cnidarian Hydractinia symbiologicarpus, P. luteoviolacea
170 i-cells, to the germ cell fate in the clonal cnidarian Hydractinia symbiolongicarpus Tfap2 mutants la
171 shRNAs into fertilized eggs of the hydrozoan cnidarian Hydractinia symbiolongicarpus via electroporat
172                                       In the cnidarian Hydractinia symbiolongicarpus, allorecognition
173                                       In the cnidarian Hydractinia symbiolongicarpus, allorecognition
174                                       In the cnidarian Hydractinia symbiolongicarpus, colonies consis
175 e protochordate Botryllus schlosseri and the cnidarian Hydractinia symbiolongicarpus.
176 de novo germ cells and somatic gonads in the cnidarian Hydractinia symbiolongicarpus.
177 dence has revealed an allodeterminant in the cnidarian Hydractinia that consistently predicts histoco
178                                       In the cnidarian Hydractinia, one of the two known allorecognit
179 brates, invertebrate chordate Botryllus, and cnidarian Hydractinia.
180 ognition gene by using inbred strains of the cnidarian, Hydractinia symbiolongicarpus, which is a mod
181 are an unequivocally novel cell type used by cnidarians (i.e., corals, jellyfish, and their kin) to i
182 y be homologous to the endodermal muscles of cnidarians, implying that the original bilaterian mesode
183                                 In hydrozoan cnidarians including the jellyfish Clytia hemisphaerica,
184 bles the polypoid, tentaculate morphology of cnidarians, including a blind gastric cavity partitioned
185  Qingjiang biota include a high abundance of cnidarians, including both medusoid and polypoid forms;
186                                              Cnidarians, including corals and anemones, offer unique
187                                              Cnidarians, including jellyfish and sea anemones, both d
188 type that performs a variety of functions in cnidarians, including the delivery of their venomous sti
189 ter-partner signaling events, where the host cnidarian innate immune system plays a crucial role in r
190 MP), to activate immune responses in a model cnidarian invertebrate, the starlet sea anemone Nematost
191 ssibility that the diploblastic condition of cnidarians is a secondary simplification, derived from a
192        PaxB, the only Pax gene found in this cnidarian, is expressed in the larva, retina, lens, and
193            Allorecognition in Hydractinia, a cnidarian, is governed by two different, highly polymorp
194 time-lapsed, high-throughput live imaging of cnidarian larvae and their algal symbionts and, in furth
195 llia than between Ceriantharia and any other cnidarian lineage, but phylogenetic analysis of the gene
196 heparan sulfate (HS) have been identified in Cnidarians, Lophotrocozoans and Ecdysozoans.
197 ching' where corals, sea anemones, and other cnidarians lose their photosynthetic algal symbionts (fa
198 anscriptomes and found a sequence match to a cnidarian luciferase (RLuc).
199               However, it is unknown whether cnidarian mechanoreceptor evolution has relied solely on
200 ession data to facilitate comparisons to non-cnidarian metazoans.
201 tabolic rates of cubozoans compared to other cnidarians might make box jellyfish more vulnerable to O
202  for development and miRNA biogenesis in the cnidarian model Nematostella vectensis.
203 a anemone Nematostella vectensis serves as a cnidarian model organism due to the availability of labo
204 a anemone Nematostella vectensis is a useful cnidarian model to study the origins of TLR signaling be
205  analysis of the draft genome of an emerging cnidarian model, the starlet sea anemone Nematostella ve
206  medusae represent the reproductive stage of cnidarians, negative impacts on adult jellyfish could se
207                Correspondingly, TRPM2 of the cnidarian Nematostella vectensis (nvTRPM2) and the choan
208                            The genome of the cnidarian Nematostella vectensis (starlet sea anemone) p
209                                          The cnidarian Nematostella vectensis (starlet sea anemone),
210                             Here, we use the cnidarian Nematostella vectensis as a developmental mode
211                Gastrulation in the anthozoan cnidarian Nematostella vectensis has been described as a
212                             Here, we use the cnidarian Nematostella vectensis to address the role of
213                Surprisingly, two Grls in the cnidarian Nematostella vectensis, NvecGrl1 and NvecGrl2,
214                                       In the cnidarian Nematostella vectensis, pacemaker gene transcr
215                             In the anthozoan cnidarian Nematostella vectensis, the primary oral-abora
216 ive intein-containing genes in the anthozoan cnidarian Nematostella vectensis, two of which (NvHh1 an
217 ute to embryonic tentacle development in the cnidarian Nematostella vectensis.
218 ity of mechanosensory neurons in sea-anemone cnidarian Nematostella vectensis.
219 ols hair cell development in the sea anemone cnidarian Nematostella vectensis.
220 e gene using CRISPR/Cas9 in the diploblastic cnidarian Nematostella vectensisNvbrachyury is normally
221 he nr databases nor to the non-scleractinian cnidarians Nematostella vectensis and Hydra magnipapilla
222                                          The cnidarian nervous system is considered by many to repres
223 eport a case of protein recruitment from the cnidarian nervous to venom system.
224 renaissance of interest in and research into cnidarians nervous systems.
225 neralized skeleton; it probably represents a cnidarian or poriferan.
226 izontal gene transfer (HGT) from copepods or cnidarians or inherited it from the common ancestor of c
227 ready present in the last common ancestor of cnidarians, or the earliest cnidarians had a medusa life
228 nsight into the form and function of related cnidarian organelles and serve as a template for the des
229 issue samples from vertebrate, arthropod and cnidarian organisms, suggesting that a similar prolifera
230 transcriptome and genome of the less reduced cnidarian parasite, Polypodium hydriforme.
231 es evolved from an ancestral gene similar to cnidarian Pax-B, having both the homeodomain and the oct
232 ted for 94% of hard-substratum organisms and cnidarians (Pennatulacea) dominated on the soft sediment
233 ication and functional characterization of a cnidarian peptide GPCR advances our understanding of ooc
234 icroscopically in echinoderms, mollusks, and cnidarians, phyla drawn from the 3 major clades of eumet
235 uorescent proteins from other classes of the Cnidarian phylum (coral and anemones), has greatly enhan
236                                   Hydra is a cnidarian polyp with an anatomically simple neuromuscula
237 ew toxins belong to a small family of potent cnidarian pore-forming toxins that includes two other C.
238                                              Cnidarians possess a large number of G protein-coupled r
239                                              Cnidarians possess many bilaterian cell-cell signaling p
240                                              Cnidarians possess remarkable powers of regeneration, bu
241                       The nervous systems of cnidarians, pre-bilaterian animals that diverged close t
242                                              Cnidarians represent a diverse group of animals with a p
243  cells or nematocytes of jellyfish and other cnidarians represent one of the most poisonous and sophi
244 lla, whose last common ancestor was the stem cnidarian, researchers are beginning to see the genomic
245                          The primary axis of cnidarians runs from the oral pole to the apical tuft an
246 pole in Nematostella and two other anthozoan cnidarians (scleractinian corals) provides a possible ex
247  during development of a basal metazoan, the cnidarian sea anemone Nematostella vectensis.
248 of embryos for an emerging model system, the cnidarian sea anemone, Nematostella vectensis.
249 e evolutionary history of symbiotic algae in cnidarians selected for a reduced tolerance to elevated
250 rian and mouse Shaker subunits, but not with cnidarian Shab, Shal, or Shaw subunits.
251  patterns, whereas sponges, bilaterians, and cnidarians share derived chromosomal rearrangements.
252                         It was reported that cnidarian soft corals [21] and box jellyfish [22, 23] ex
253  current knowledge on the nervous systems of cnidarian species and propose that researchers should se
254    Symbiodinium is a common symbiont in many cnidarian species including corals, jellyfish, anemones,
255 ) can induce gene-specific knockdowns in two cnidarian species.
256 hereas the diet of larger fish included more cnidarian species.
257 alga-derived nutrients, a novel and expanded cnidarian-specific family of putative pattern-recognitio
258  to mediate cnidogenesis, the development of cnidarian-specific neural effecter cells.
259 se findings reveal a molecular basis for the cnidarian stinging response and highlight general princi
260 plications for other obligate zooxanthellate cnidarians subject to bleaching.
261                                              Cnidarians such as sea anemones or jellyfish possess a n
262 tonized bilaterians or, alternatively, large cnidarians such as sea anemones or sea pens.
263 itochondrial genes of H. oligactis and other cnidarians supports the Medusozoa hypothesis but also su
264 he ability to do so is dependent on specific cnidarian-Symbiodiniaceae relationships.
265                                           In cnidarian-Symbiodiniaceae symbioses, algal endosymbiont
266 emergence of novel and potentially resilient cnidarian-Symbiodinium associations in a rapidly warming
267 utes to the spatial distribution of specific cnidarian-Symbiodinium associations.
268 a pallida; called Aiptasia herein) model for cnidarian symbiosis and dysbiosis (i.e., "bleaching").
269 rved immune regulatory protein NF-kappaB and cnidarian symbiotic status.
270 arative functional analysis in arthropod and cnidarian systems (Drosophila melanogaster and Nematoste
271         Physonect siphonophores are colonial cnidarians that are pervasive predators in many neritic
272 present stem-group eumetazoans or stem-group cnidarians that lived in the late Proterozoic ocean.
273 uspension feeders, sharing similarities with cnidarians that suggest either a close relationship betw
274                       Whereas in free-living cnidarians the stinging capsules are used for prey captu
275                              As in two other cnidarians, the hexacorallian anthozoan Metridium senile
276 ng cones are very old, first appearing among cnidarians; the emergence of rods was a key step in the
277 e evolutionary transition from a free-living cnidarian to a microscopic endoparasite, we analyzed gen
278 of the myxozoan body plan from a free-living cnidarian to a microscopic parasitic cnidarian was accom
279 erent tissues and found in Hox proteins from cnidarian to mouse species.
280 ces of Tm genes from 26 animal species, from cnidarians to chordates, and evaluated the substitution
281                            All animals, from cnidarians to humans, are colonized with microbes, and t
282                        All eumetazoans, from cnidarians to humans, express RNA editing enzymes.
283 n all mucosal surfaces sampled, ranging from cnidarians to humans.
284 functions in the germ line of organisms from cnidarians to mammals.
285                             Expansion of the cnidarian toxin family therefore provides new insights i
286 Here we show by cDNA and gene cloning that a Cnidarian, Tripedalia cystophora, possesses a retinoid r
287      Our work characterizes the diversity of cnidarian TSR proteins and provides evidence that these
288   Coloniality is a widespread growth form in cnidarians, tunicates, and bryozoans, among others.
289 sh larvae and packaged into nematocysts, the cnidarian venom-producing stinging capsules.
290 -living cnidarian to a microscopic parasitic cnidarian was accompanied by extreme reduction in genome
291  tunicates, amphioxus, other bilaterians and cnidarians, we build these strands into a scenario of pl
292                             More than 97% of Cnidarians were bioluminescent, and 9 of the 13 taxonomi
293  metazoa (predominantly pelagic mollusks and cnidarians) were the most common sinking particle-associ
294 sea anemone, Nematostella vectensis: a model cnidarian which lacks algal symbionts.
295 has been demonstrated in animals as basal as cnidarians, while roles in axial patterning for retinoic
296  the moon jellyfish Aurelia, a genome from a cnidarian with a medusa life stage.
297                            Hydra vulgaris, a cnidarian with a simple nerve net, is an emerging model
298 se these attributes promote survival of most cnidarians with clade A symbionts at high light intensit
299 nnan Province, China, including the putative cnidarian Xianguangia, the new taxon Daihua sanqiong gen
300  size and complexity relative to free-living cnidarians, yet they have retained specialized organelle

 
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