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1 includes a polypyrimidine-rich region and CA dinucleotide repeat.
2 in repetitive DNA, requiring as little as a dinucleotide repeat.
3 ir association with homopolymeric tracts and dinucleotide repeats.
4 NA replication direction and is caused by TG-dinucleotide repeats.
5 AST phenotype and low levels of mutations at dinucleotide repeats.
6 which defines a novel function for exonic CA dinucleotide repeats.
7 rn of the mutation rate variation within the dinucleotide repeats.
8 lexibility of two kinds of nicked DNA and AT dinucleotide repeats.
9 ibit microsatellite instability at mono- and dinucleotide repeats.
10 The gene has several stretches of dinucleotide repeats.
11 y been shown that this mutation destabilizes dinucleotide repeats 150-fold and that this effect is pr
12 airs (bp) upstream of the start site, and GT dinucleotide repeats 50 to 800 bp downstream in the plus
14 inated sequence (IES) is bounded by 5'-TA-3' dinucleotide repeats, a feature common to some classes o
16 etected as induced instability of a (CA)(29) dinucleotide repeat and by increased mutagenesis in a ch
18 ning simple repeats, including 28 (55%) with dinucleotide repeats and 6 (11%) with trinucleotide repe
19 s including single nucleotide polymorphisms, dinucleotide repeats and microsatellites have been ident
20 yzed as haplotypes consisting of each of the dinucleotide repeats and the flanking Alu insertion/dele
22 e had a strongly elevated mutation rate in a dinucleotide repeat, and the rate was not further elevat
23 s, the Bethesda consensus panel of mono- and dinucleotide repeats, and coding mononucleotide repeats
30 d inexact repeat lengths (e.g., 1.9 bp for a dinucleotide repeat), are accommodated by the method and
31 ta = 0 was observed with a fully informative dinucleotide repeat at COL4A5, and flanking recombinatio
34 this allele does not alter mutation rates at dinucleotide repeats, at nonrepeating sequences, or for
35 phenotype was specific, as mutation rates at dinucleotide repeats, at unique sequences, or for TNR co
39 alleles with greater numbers (12 or more) of dinucleotide repeats, compared with 9 of 11 cases with g
40 r a pyrimidine rich region consisting of two dinucleotide repeats containing 23 and 20 TC pairs separ
43 frequency data from 115 microsatellites with dinucleotide repeats distributed along the human genome
44 also identified a highly polymorphic simple dinucleotide repeat DNA polymorphism in this gene that w
47 an uncommon event, genotyping of polymorphic dinucleotide repeat elements from 4 different chromosoma
49 e susceptibility to glomerulosclerosis, that dinucleotide repeat expansion may be a novel mechanism f
52 ied a highly polymorphic chromosome 2q21-q33 dinucleotide repeat genetic marker (D2S141) physically l
53 t cancer, we genotyped a newly identified GT dinucleotide repeat [(GT)(n)] polymorphism located in th
54 the effect on homologous recombination of a dinucleotide repeat, (GT)29, which has been shown to sti
56 measured the spontaneous mutation rate of a dinucleotide repeat in diploid human foreskin fibroblast
57 n EGFR overexpression and the length of a CA dinucleotide repeat in intron 1 was observed, a variant
61 and the presence of homopolymeric tracts and dinucleotide repeats in coding sequences, H. pylori, lik
62 High levels of MSI at mononucleotide and dinucleotide repeats in colorectal cancer (CRC) are attr
64 nged by HP0638 knockout had five or seven CT dinucleotide repeats in the 5' region, resulting in a fr
65 e length polymorphism of guanosine thymidine dinucleotide repeats in the heme oxygenase-1 gene promot
66 e allelic frequencies of guanosine thymidine dinucleotide repeats in the heme oxygenase-1 gene promot
67 ion, a greater number of guanosine thymidine dinucleotide repeats in the heme oxygenase-1 gene promot
68 Length polymorphisms in the number of GT dinucleotide repeats in the HO-1 gene (HMOX1) promoter i
71 lleles were characterized: two carry a 24 TA dinucleotide repeat insertion in the 5'-upstream promote
76 from radiation-reduced hybrids, polymorphic dinucleotide repeat loci, and end sequences of YACs and
78 kers, one located in intron 8 and another, a dinucleotide repeat marker, AFMa086wg9, located within i
81 se-control study and included 10 polymorphic dinucleotide repeat markers linked to CYP2D6 to determin
82 YP2D6 and Parkinson's disease, but two of 10 dinucleotide repeat markers linked to CYP2D6 were associ
83 sease that is in linkage disequilibrium with dinucleotide repeat markers mapping near CYP2D6 on ch22q
84 bility (MSI-L) when analysed using mono- and dinucleotide repeat markers, and showed a significant ex
85 lymorphic sites and linkage analysis of four dinucleotide repeat markers, two within and two flanking
86 reened the human genome with 300 polymorphic dinucleotide-repeat markers using an unconventional stra
88 s in MMR genes of H. influenzae strain Rd on dinucleotide repeat-mediated PV rates was investigated b
89 ave been limited only to the p-1562 and (CA) dinucleotide repeat microsatellite polymorphisms in the
92 e deficit of diversity is less for SSRs with dinucleotide repeat motifs than for SSRs with repeat mot
93 t abundant (84%) compared to the other three dinucleotide repeat motifs, AC/TG, AT/TA, and CG/GC.
94 on and observed the same correlation between dinucleotide repeat number and exon 9 splicing efficienc
98 rains in which HP0638 was in frame, a six-CT dinucleotide repeat pattern was dominant in Western coun
100 Mb, formatted with 200 STSs that include 25 dinucleotide repeat polymorphic markers and more than 80
103 Results of this study indicate that the GT dinucleotide repeat polymorphism in ER-alpha gene promot
110 gth heteroplasmy was also observed in the AC dinucleotide repeat region, as well as other locations.
112 s in rates of frameshift mutations between a dinucleotide repeat sequence [(CA)(17)] and a tetranucle
113 r G4 handedness and illustrates how a simple dinucleotide repeat sequence can form complex structures
116 Our previous report shows that a d(CG)n dinucleotide repeat sequence located proximally upstream
117 In this article, the effect of a d(CG) DNA dinucleotide repeat sequence on RNA polymerase II transc
119 e specificity for the loss of two bases in a dinucleotide repeat sequence within the HSV-tk locus.
120 en the 2-nucleotide gap is associated with a dinucleotide repeat sequence, sequence slippage re-align
122 Recombinant GBP protein did not bind to dinucleotide repeat sequences other than (GA)(n)/(CT)(n)
127 , we measured insertion-deletion mutation of dinucleotide-repeat sequences (microsatellite instabilit
128 lternative, MSH3-like activity that restored dinucleotide repeat stability and sensitivity to chromat
130 gle-unit insertion/deletion in a 5' flanking dinucleotide repeat that governs expression of each vmc
131 an AT-rich region that contains a dA/dT(23) dinucleotide repeat that has properties of a DNA unwindi
133 ous to the E. coli MMR pathway and active on dinucleotide repeat tracts, defects in H. influenzae MMR
134 hin the larger introns include a polymorphic dinucleotide repeat, two tandem repeats, and a putative
136 ed oligonucleotides on ligation fidelity for dinucleotide repeats was determined using the nucleoside
137 rosatellite loci containing trinucleotide or dinucleotide repeats were amplified from infected tissue
138 n all cases, the mutation frequencies of the dinucleotide repeats were higher than those of the tetra
139 tations in spel1 decrease the stability of a dinucleotide repeat when it is copied into the site of a
140 ncreased rate of instability in long runs of dinucleotide repeats when analyzed after 10-12 fly gener
141 (16-fold) elevation in the instability of a dinucleotide repeat, whereas Msh2-deficient and Msh2 Msh
142 ted increase element (AIE; unique stretch of dinucleotide repeats), which were responsible for age-re
143 CA)13-EGFP, a plasmid that contains a (CA)13 dinucleotide repeat, which disrupts the reading frame of
144 The homopolymeric nucleotide tracts and dinucleotide repeats, which potentially regulate the on-