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1 GGGGTTTTGG) sequence found at DNA termini in Euplotes.
2 ar telomeres from the ciliates Oxytricha and Euplotes.
3   Here we show that this is not the case for Euplotes.
4  sites to be noncritical for the survival of Euplotes.
5 atterning in the exemplary hypotrich ciliate Euplotes, a highly polarized cell, which actuates a larg
6 ments with a minimal model to understand how Euplotes-a unicellular organism-manipulates its membrane
7 ptase (RT)-like proteins associated with the Euplotes aediculatus (Ea_p123), Saccharomyces cerevisiae
8 eated sequence, (TTTTGGGG)(n) in the ciliate Euplotes aediculatus and (TTAGGG)(n) in humans.
9 tein subunits of telomerase from the ciliate Euplotes aediculatus and the yeast Saccharomyces cerevis
10 e report the purification of telomerase from Euplotes aediculatus by affinity chromatography with ant
11 tein components, telomerase from the ciliate Euplotes aediculatus contains the subunit p43.
12 inks with the anchor site of telomerase from Euplotes aediculatus nuclear extract.
13                           The stabilities of Euplotes aediculatus primer-telomerase complexes were de
14 e processivity of telomeric DNA extension by Euplotes aediculatus telomerase at various concentration
15 elomerase ribonucleoprotein from the ciliate Euplotes aediculatus to telomeric DNA in vitro has been
16                 Telomerase was purified from Euplotes aediculatus, a ciliated protozoan, and one of i
17                               In the ciliate Euplotes aediculatus, the protein p43 biochemically co-p
18 rium is several times longer than the age of Euplotes and is expected to occur after a several-fold i
19  the same DNA-binding characteristics as the Euplotes and Oxytricha telomere-binding proteins.
20 ndently derived the same eRF1 specificity as Euplotes, and three spirotrichs, Stylonychia lemnae, S.
21                           This suggests that Euplotes are at an early stage of the spread of frameshi
22 complex, together supporting the position of Euplotes as a possible evolutionary intermediate in this
23   First, it is hosted by a ciliated protist, Euplotes; bacterial symbionts of ciliates are still poor
24 eotide was less precise than Tetrahymena and Euplotes but still had a bias that changed as a function
25  As it navigates its surroundings, a walking Euplotes cell is routinely observed to perform side-step
26 nt stop codons at internal mRNA positions in Euplotes ciliates ultimately specify ribosomal frameshif
27 eobacterium Polynucleobacter and the ciliate Euplotes (clade B) challenges this view(2): although fre
28 ies of the telomere end binding protein from Euplotes crassus (EcTEBP).
29          The transposon-like Tec elements of Euplotes crassus are precisely excised during formation
30                  Telomerase from the ciliate Euplotes crassus incorporates G4T4telomeric repeats onto
31 e histone H3 genes of the ciliated protozoan Euplotes crassus indicates that one gene functions only
32                  During sexual reproduction, Euplotes crassus precisely fragments its micronuclear ch
33 avage-elongation reaction carried out by the Euplotes crassus telomerase.
34 , rTP, is a nuclear protein from the ciliate Euplotes crassus that appears to be a novel telomere rep
35  Two genes have been cloned from the ciliate Euplotes crassus that encode proteins with sequence simi
36 R of TR3 with the corresponding segment of a Euplotes crassus TR restricted Sec insertion into the C-
37 istone H2B genes from the ciliated protozoan Euplotes crassus were cloned and sequenced.
38                               In the ciliate Euplotes crassus, however, telomerase RNP structure and
39 rmation of a new macronucleus in the ciliate Euplotes crassus, micronuclear chromosomes are reproduci
40                               In the ciliate Euplotes crassus, millions of new telomeres are synthesi
41                                           In Euplotes crassus, most of the micronuclear genome is eli
42 rminal domain of the OnTEBP alpha subunit in Euplotes crassus, Schizosaccharomyces pombe, and Homo sa
43 in Oxytricha trifallax, Stylonychia mytilis, Euplotes crassus, Schizosaccharomyces pombe, and Homo sa
44                                           In Euplotes crassus, telomerase is responsible for telomere
45 f selenocysteine and cysteine in the ciliate Euplotes crassus, that the dual use of this codon can oc
46                               In the ciliate Euplotes crassus, the core telomerase ribonucleoprotein
47 ring macronuclear development in the ciliate Euplotes crassus, the highly repetitive, transposon-like
48 autotroph) consumed by a generalist predator Euplotes eurystomus to explore the dynamics of apparent
49 odied in cells using the walking behavior of Euplotes eurystomus, a ciliate that walks across surface
50 sociated to the psychrophilic marine ciliate Euplotes focardii, endemic of the Antarctic coastal seaw
51                          Similarities of the Euplotes fragmentation/telomere addition process to the
52 anslational frameshifting in ciliates of the Euplotes genus.
53                             In contrast, the Euplotes hybrid facilitated efficient translation termin
54               Thus, telomerase expression in Euplotes is controlled by unique regulatory mechanisms t
55   These findings suggest that p43 is not the Euplotes La protein but instead plays a dedicated role i
56 th telomerase from vegetative and developing Euplotes macronuclei using chimeric primers that contain
57 lizes to the sites of DNA replication within Euplotes macronuclei.
58 ene, and that the structural arrangements of Euplotes mRNA preserve location-dependent dual function
59 one En-6 isolated from the antarctic species Euplotes nobilii.
60 demonstrated that a hybrid eRF1 carrying the Euplotes octocarinatus domain 1 fused to Saccharomyces c
61 ain 1 from either Tetrahymena thermophila or Euplotes octocarinatus fused to eRF1 domains 2 and 3 fro
62 of 'model' ciliates-Paramecium, Tetrahymena, Euplotes, Oxytricha and Stylonychia-reveal considerable
63  populations in the presence of the predator Euplotes patella.
64                                The protozoan Euplotes pheromones were selected by fold recognition as
65                                              Euplotes provides a unique opportunity to study C strand
66 by Chlamydomonas in response to predation by Euplotes provides an antipredator defence not available
67 e Er-11 pheromone of the unicellular ciliate Euplotes raikovi, suggesting a possible common pathway f
68   Here, we sequenced transcriptomes of eight Euplotes species and assessed evolutionary patterns aris
69                                  Ciliates of Euplotes species constitutively secrete pleiotropic prot
70 challenges this view(2): although freshwater Euplotes species long ago became dependent on endosymbio
71 es recognize only UGA as a stop codon, while Euplotes species recognize only UAA and UAG as stop codo
72              We examined all known essential Euplotes symbionts and found that none are ancient or co
73                        We show that purified Euplotes telomerase has no activity with blunt-ended pri
74               In this study we recruited the Euplotes telomerase to nontelomeric 3' termini in vitro
75 protein particles cooperate to elongate each Euplotes telomere in vivo.
76 mers are aligned with the G-rich strand of a Euplotes telomere, the cross-linked nucleotides correspo
77 at rTP binds specifically to the G-strand of Euplotes telomeric DNA and hence has some of the same DN
78 raints based on sequence alignments with the Euplotes templates and the attractin disulfide bonds.
79                     We have used the ciliate Euplotes to study the role of DNA polymerase in telomeri
80 pecies, the germline and somatic genomes for Euplotes woodruffi, Tetmemena sp., and the model ciliate
81  of the chromosome end-replicating enzyme in Euplotes, yeasts, and mammals.