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1  cortical surface area (deletion < control < duplication).
2 ean cortical thickness (deletion > control > duplication).
3 gy in paired fins, that could have arisen by duplication.
4 29, which may represent an early step in SPB duplication.
5 ple origins of replication for timely genome duplication.
6 3.2 duplication, 13q34 deletion, and 16p13.2 duplication.
7 ation and transcription challenge chromosome duplication.
8 ergence of the Ae. tauschii GLR copies after duplication.
9 isome unwinds and synthesizes DNA for genome duplication.
10 ation of land plants, predominantly via gene duplication.
11 is assembled into a new structure during SPB duplication.
12 chromosome decondensation followed by genome duplication.
13 ilon), are responsible for eukaryotic genome duplication.
14 he transcriptional network that regulates PD duplication.
15  glaucoma in human patients with a TBK1 gene duplication.
16 lant genes after speciation and whole genome duplication.
17 als with and without the 22q11.2 deletion or duplication.
18 e paralogues generated in the teleost genome duplication.
19 ntified individuals with 22q11.2 deletion or duplication.
20 , which is essential for centrin arm and FAZ duplication.
21 rdates and nematodes and evolved rapidly via duplication.
22 and in Rett-related disorders, such as MECP2 duplication.
23 ape following hybridization and whole-genome duplication.
24 uired for the regulation of DDT after genome duplication.
25 of satellite DNA and surrounded by segmental duplications.
26 gh GC content, repeat elements and segmental duplications.
27 urveillance strategies for carriers of GREM1 duplications.
28 tributions and phylogenetic analyses of gene duplications.
29 bunits that have resulted from recent genome duplications.
30 construct the frequency and location of gene duplications.
31 A), which results in proximodistal (PD) limb duplications.
32 letion, 9p24.3-p23 deletion, 10q11.22-q11.23 duplication, 12p13.33-13.2 duplication, 13q34 deletion,
33 , 10q11.22-q11.23 duplication, 12p13.33-13.2 duplication, 13q34 deletion, and 16p13.2 duplication.
34 utation (3 of 20 tumors [15%]), whole genome duplication (5 of 20 tumors [25%]), and 3p deletion (11
35  and/or epilepsy were identified: 2p16.1-p15 duplication, 6p25.3-p25.1 duplication, 8p23.3p23.1 delet
36 tified: 2p16.1-p15 duplication, 6p25.3-p25.1 duplication, 8p23.3p23.1 deletion, 9p24.3-p23 deletion,
37   These expansions are largely due to tandem duplication, a possible adaptation mechanism enabling po
38 tified 33 hotspots of large (>100 kb) tandem duplications, a mutational signature associated with hom
39                          These deletions and duplications affect both protein-coding genes and cis-re
40 innovation by fusion of incomplete segmental duplications, altered tissue expression, and potential s
41 2 appear to have originated by a chromosomal duplication and are found within evolutionarily-conserve
42 s in facilitating gene expression and genome duplication and demonstrate that accessory helicases are
43  results provide an illustration of how gene duplication and divergence can generate potential for th
44  two functions (HisA and TrpF), resulting in duplication and divergence of the hisA gene to encode Tr
45 d complexity is consistent with evolution by duplication and divergence, and some of the themes might
46 the last 100 million years that include gene duplication and divergence, gene loss, evolution of subs
47 modimeric ancestor through a process of gene duplication and diversification; however molecular evide
48 s for eukaryotic species allow for only gene duplication and gene loss or only multispecies coalescen
49 ubsequently increased in complexity via gene duplication and horizontal gene transfer.
50 thin the cytogenetic or FLT3-internal tandem duplication and NPM1 gene mutation subgroups.
51 e, karyotypic risk, and FLT3-internal tandem duplication and NPM1 gene mutations.
52                                     One 9-bp duplication and one splice-site, five missense, and two
53 e-which is essential for accurate chromosome duplication and segregation.
54                    The reasons for the CELA3 duplication and the substrate preferences of the duplica
55 ugh transfer alone and genes related through duplication and transfer.
56                                              Duplication and triplication of copy number variants of
57 ription start site for HYDIN2 outside of the duplication and we observe fusion transcripts spanning b
58 enome organization that implicate local gene duplication and, to a lesser extent, single gene transpo
59 genic conditions, both complex disorders and duplication and/or deletion syndromes, can be effectivel
60 ons or reside within previously unidentified duplications and deletions.
61                                 In addition, duplications and divergence of these genes in different
62 ng SCR and SCR associated gene amplification/duplications and imply that these functions of FANCJ are
63 ent errors in recombination and lead to gene duplications and structural chromosome changes that driv
64 nciled gene tree with an arbitrary number of duplications and transfers.
65 s the product of two successive whole genome duplications) and between Arabidopsis and soybean orthol
66  daughter centrioles to become competent for duplication, and for mother centrioles to maintain this
67 odons), expansion of the code via proto-tRNA duplication, and frozen accident.
68 Mb LCR22A-D 22q11.2 deletion, the reciprocal duplication, and the smaller 1.5 Mb LCR22A-B 22q11.2 del
69  timescales, are associated with gene/genome duplications, and introgression has contributed to their
70 gies, orthology in the light of whole-genome duplications, and the concept of orthologous versus para
71 show that jute underwent shared whole-genome duplication approximately 18.66 million years (Myr) ago
72 lude the following: 1) basal body and bilobe duplication are concurrent; 2) maturation of probasal bo
73 ginated from this paddlefish specific genome duplication are cytogenetically distinguishable.
74 ly 10-kilobase microhomology-mediated tandem duplications are abundant in the genomes of BRCA1-linked
75  clade and a sunflower-specific whole-genome duplication around 29 million years ago.
76  (CISD1) and NAF-1 (CISD2), emerged via gene duplication around the origin of vertebrates.
77  with other tools with general deletions and duplications, as well as for different number of copies
78 l protein SAS-7, as a regulator of centriole duplication, assembly and elongation.
79 3 years; 42 male patients), 79 carriers of a duplication at 16p11.2 (referred to as duplication carri
80 ttle is known about the consequences of this duplication at the level of the genome, the epigenome, a
81 ot BRCA2, suppresses the formation of tandem duplications at a site-specific chromosomal replication
82       To identify indicators of deletions or duplications at the 22q11.2 locus and estimate the incid
83 MD families, we report two novel overlapping duplications at the MCDR3 locus, in a gene desert downst
84                                This peculiar duplication behavior is hypothesized to stem from constr
85 s) are defined as deletions, insertions, and duplications between two individuals of a species.
86 nce identity, and mosaic nature of segmental duplication blocks.
87 switching, the latter forming complex tandem duplication breakpoints.
88 e assessed the drivers of the distal 16p11.2 duplication by overexpressing each of the nine encompass
89                         We identified a 7 bp duplication (c.3838_3844dupGAAAGCG [p.Glu1282_Glyfs( *)5
90                                         Gene duplications can facilitate adaptation and may lead to i
91 ther than schizophrenia were associated with duplication carrier status.
92 ing of 137 unrelated deletion and reciprocal duplication carriers of the distal 16p11.2 220 kb BP2-BP
93 ull-scale and verbal IQ scores compared with duplication carriers without these findings (P < .007 an
94                                      For the duplication carriers, presence of decreased white matter
95                                          For duplication carriers, the most salient findings compared
96 duals with deletions and 6.1 (0.9) years for duplication carriers.
97  of a duplication at 16p11.2 (referred to as duplication carriers; age range, 1-63 years; mean age, 2
98 dividual (HUWE1 p.R2981H, p.R4187C and HUWE1 duplication) cell lines.
99                   To ensure efficient genome duplication, cells have evolved numerous factors that pr
100                              The cytoplasmic duplication cycle and regulation of the Schizosaccharomy
101 actors may instead be explained by the older duplication-degeneration-complementation model.
102 dwide library of S. pombe strains, including duplications, deletions, inversions and translocations.
103 In Saccharomyces cerevisiae, the post-genome-duplication Dig1/Dig2 proteins regulate MAP kinase contr
104 rihelix-forming RNA with requisite 5' and 3' duplications, do not produce circles.
105  This complexity arose from two whole-genome duplications early in the vertebrate lineage.
106  NPM1 wild-type/FLT3 without internal-tandem duplications (EFS, 18% +/- 5 vs 40% +/- 7; Cox P < .001)
107 types were not necessarily coupled with gene duplication, even though silk-specific genes belong to m
108  550 million years ago as a result of a gene duplication event followed by loss of Cu(+) transport ac
109  the duplicated state after the whole genome duplication event in yeast, emphasizes the important rol
110                Our findings show that a gene duplication event permitted the functional specializatio
111 d sHsps that have emerged from a recent gene duplication event resulting from the ongoing diversifica
112     A Myrtales lineage-specific whole-genome duplication event was detected that occurred in the comm
113         In addition to a recent whole-genome duplication event, lineage-specific expansions of genes
114 between individuals following a whole-genome duplication event.
115                       No recent whole genome duplication events are observed in spinach.
116                                              Duplication events gave rise to what are now referred to
117                                 Whole-genome duplication events have provided additional gene copies
118 53 are often clonal and precede whole-genome duplication events in early lung carcinogenesis.
119 ons reveal their emergence by two successive duplication events of a primordial gene pair in the last
120 ssification, distribution along the genomes, duplication events, molecular structure, and phylogeny.
121 plant evolution; but various genome and gene duplication events, which occurred during plant evolutio
122 des quickly revert to singleton status after duplication events.
123                                 The inverted duplication exhibits steep clines in allele frequency in
124       Two ABCC2 mutations - Glu1352Ala and a duplication (exons 24 and 25).
125  significant iHR activity in internal tandem duplication FLT3 (FLT3-ITD) and JAK2V617F-mutated cells.
126 pletion cooperated with Flt3 internal tandem duplication (Flt3(ITD)) leukaemic mutations to accelerat
127  (AML) that harbors the FLT3-internal tandem duplication (FLT3-ITD) mutation.
128 n type of FLT3 mutation, the internal tandem duplication (FLT3-ITD) mutation.
129 might have evolved from SbCYP82D1.1 via gene duplication followed by neofunctionalization, whereby th
130 mbers, can result from clade-specific genome duplications followed by diploidization.
131 lants and animals was driven by whole-genome duplications followed by nonrandom gene loss.
132 is family expanded from segmental and tandem duplications following a tetraploidization event.
133 icating misrepair of these lesions in tandem duplication formation.
134                              Gene and genome duplication fosters genetic novelty, but redundant gene
135 originating from the Salicaceae whole-genome duplication had diverged expression, with the exception
136 logues from the two most recent whole-genome duplications had virtually identical localization patter
137                                       Genome duplication has played a pivotal role in the evolution o
138                           Microdeletions and duplications have been described at the 22q11.2 locus.
139                              Gene and genome duplications have been rampant during the evolution of f
140  synteny indicated that segmental and tandem duplications have contributed greatly to the expansion o
141                     Thus, while whole-genome duplications have driven the expansion and diversificati
142                             Gene fusions and duplications have further shaped the composition and exp
143         We propose that UV and LW opsin gene duplications have restored the potential for trichromacy
144           This model uses evidence from gene duplications, horizontal transfers, and gene losses cont
145                        Notably, these tandem-duplication hotspots were enriched in breast cancer germ
146  in several of the figures, resulting in the duplications; however, they did not address all of the c
147                                       Genome duplication in eukaryotes created paralog pairs of ribos
148 ae and show concurrent expansions via serial duplication in flowering plants.
149 pecific gene expression and the role of gene duplication in functional novelty, but its potential has
150 s confirm the pathogenicity of the TBK1 gene duplication in human glaucoma and suggest that excess pr
151 etection algorithm missed a pathogenic 18 bp duplication in myosin binding protein C (MYBPC3) because
152 , including SfiA, a protein required for SPB duplication in Saccharomyces cerevisiae and S. pombe and
153 ng advantage of three distinctive signals of duplication in short-read sequencing data, we identified
154 en attributed to a semi-dominant 7-base-pair duplication in the first exon of the forkhead box I3 gen
155 by core eudicots but no further whole-genome duplication in the last approximately 125 million years.
156 hism that a DNA segment presents deletion or duplication in the population.
157 rous tolerance mechanisms to complete genome duplication in the presence of such impediments.
158 l okra leaf shape allele has a 133-bp tandem duplication in the promoter, correlated with elevated ex
159  known genetic risk for schizophrenia, but a duplication in the same region is strongly associated wi
160 cted two unique frameshift mutations and one duplication in three patients (two families); two siblin
161 n and Norwegian families is caused by tandem duplications in a non-coding genomic region containing a
162                                       Tandem duplications in BRCA1 mutant cells arise by a replicatio
163 cation stress, a potential driver of genomic duplications in cancer.
164 of sporadic chordoma in 104 cases, revealing duplications in notochordal transcription factor brachyu
165 strongly associated with 10 kilobase tandem duplications in ovarian cancer.
166 equencing data from 34 butterflies to detect duplications in two Heliconius species, Heliconius cydno
167                                              Duplications, in contrast, caused not only dose-dependen
168 ng variants upstream of PRDM13 (MCDR1) and a duplication including IRX1 (MCDR3) have been identified.
169 entified expression patterns that explain PD duplication, including upregulation of proximal homeobox
170                             Recurrent tandem duplications intersecting with a TAD boundary mediate de
171 ctural variation, including large deletions, duplications, inversions, translocations, and other rear
172 letion (IRR, 34.08; 95% CI, 22.39-49.27) and duplication (IRR, 33.86; 95% CI, 8.42-87.87).
173  deletion (IRR, 4.24; 95% CI, 3.07-5.67) and duplication (IRR, 4.99; 95% CI, 1.79-10.72) was associat
174 ndicators for carrying a 22q11.2 deletion or duplication, IRR, and cumulative incidences for psychiat
175                           Gene innovation by duplication is a fundamental evolutionary process but is
176                                 Whole genome duplication is considered to be a significant contributo
177        A relatively recent vertebrate genome duplication is that in Xenopus laevis, which resulted fr
178 le in early cleavage and regulate centrosome duplication is therefore a major cause of human preimpla
179 d in the 2.62 kb overlapping region of these duplications is an enhancer element that is active in ep
180 e multiprotein system responsible for genome duplication, is a highly dynamic complex displaying a la
181    We hypothesized that FLT3/internal tandem duplication (ITD) leukemia cells exhibit mechanisms of i
182 osine kinase domain (TKD) or internal tandem duplication (ITD) mutation with either a high ratio (>0.
183 yotype, the presence of FLT3-internal tandem duplication (ITD), and a < 4-log reduction in PB-MRD wer
184 requently co-occur with FLT3 internal tandem duplications (ITD) or, less commonly, NRAS or KRAS mutat
185             Unexpectedly, both deletions and duplications lead to decreased alpha7 nAChR-associated c
186    Uncoupling these processes through genome duplications likely provided important adaptations with
187 ree (LCT), that simultaneously describes the duplication-loss and coalescent history of a gene family
188 line can model gene sequence evolution, gene duplication-loss, gene transfer and multispecies coalesc
189 h from NE insertion unmasks functions of the duplication machinery.
190                    Our findings suggest that duplications may often occur along with shifts in either
191              In contrast to the classic gene duplication model, we find that a common mode of acquisi
192 rrangements (novel insertions, deletions and duplications) more rapidly.
193 atients with activating FLT3 internal tandem duplication mutations at the time of acquired resistance
194                              Internal tandem duplication mutations in FLT3 are common in acute myeloi
195 DGFRA mutations and KIT exon 11 insertion or duplication mutations were associated with favorable RFS
196 ib and control: 74% had FLT3-internal tandem duplication mutations, 23% FLT3-tyrosine kinase domain p
197 ations, substitution mutations, insertion or duplication mutations, and mutations that involved codon
198       We report 4 extended families with the duplication near GREM1 previously found in Ashkenazi Jew
199 complex functional relationships among miRNA duplications, novel expression patterns, sequence change
200 e downregulated in both 15q13.3 deletion and duplication NPCs.
201                   We estimate that the HYDIN duplication occurred 3.2 million years ago and find tha
202 OX-interacting BELL proteins, in that a gene duplication occurred after divergence of the two groups.
203                                          One duplication of 43 kb was identified in nine families (wi
204 ducing 2, HYDIN2, was generated by a 364 kbp duplication of 79 internal exons of the large ciliary ge
205 n cancer predisposition syndrome caused by a duplication of a noncoding sequence near the gremlin 1,
206 itions, suggesting that they have arisen via duplication of ancestral genes.
207  and lamins, nuclear envelope breakdown, and duplication of centrosomes.
208 atic changes in chromosome structure include duplication of entire chromosome arms and aneuploidy whe
209 en (PCNA) lies at the center of the faithful duplication of eukaryotic genomes.
210 dicate that CvAOX has 10 exons with a tandem duplication of exon 10, and 3' alternative splicing usin
211 n is a complex process that requires precise duplication of genetic material.
212  characterized by the inverted (palindromic) duplication of genomic segments, in HER2-positive breast
213 DNA synthesis (nuclear and kinetoplast DNA), duplication of organelles (basal body, bilobe, kinetopla
214 e-Tooth disease type 1A (CMT1A) is caused by duplication of peripheral myelin protein 22 (PMP22) and
215                              A unique tandem duplication of Rca gene occurred in a common grass ances
216                                              Duplication of services, fragmentation, and resource lim
217 telomere-induced DNA damage foci and loss or duplication of telomeric sequences.
218 The assay is designed around a heteroallelic duplication of the Aprt gene at its endogenous locus in
219                   In addition, AEE788 blocks duplication of the basal body and the bilobe without aff
220 as been hypothesized to have resulted from a duplication of the developmental mechanisms present in t
221 een recruited several times independently by duplication of the gene encoding deoxyhypusine synthase,
222 ling in the dorsal domain results in partial duplication of the mandible.
223            FtsZ1 and FtsZB probably arose by duplication of the more ancestral FtsZ2 and FtsZA, respe
224 Tooth disease type 1A (CMT1A) is linked with duplication of the peripheral myelin protein 22 (PMP22)
225                                              Duplication of the TBK1 gene is associated with 1-2% of
226                            CST first aids in duplication of the telomeric dsDNA.
227 e propose the Iw loci arose from an inverted duplication of W1-COE and/or W2-COE in ancestral wheat t
228 sponding to a region of chromosome 15q11-13, duplication of which is recurrent in humans to character
229 ngly, these maps are segregated resulting in duplication of whisker representations and doubling of t
230 est that both individuals with deletions and duplications of 15q13.3 manifest neuropsychiatric diseas
231 milies, we identified two overlapping tandem duplications of 7.67 kb (South Africans) and 15.93 kb (N
232 ch primarily consist of localized losses and duplications of DNA sequences.
233 Gene family analyses reveal lineage-specific duplications of genes involved in the transport of nutri
234  high turnover" fashion: numerous losses and duplications of this family are likely to reflect comple
235 issense variants and nine in-frame deletions/duplications of which 12 were novel.
236 ble peripheral neuropathy and results from a duplication on chromosome 17 that results in an extra co
237 and 18 921 genes in each cultivar exhibiting duplication or deletion.
238 rmation incidences, are predominantly tandem duplications or complex gains, exhibit breakpoint juncti
239  six loci previously associated with T2D had duplications or deletions in the T2D sample, but not the
240  number variant (CNV) analysis to screen for duplications or deletions.
241 arying numbers of enzymes, due to gene loss, duplication, or transfer, among closely related environm
242 etions, OR = 20.3, 95% CI [2.6-156.2]; CNTN6 duplications, OR = 10.1, 95% CI [2.3-45.4]).
243 re differentially altered by recombinations, duplications, or mutations.
244               The recurrent three-amino acid duplication p.(Asp2303_Leu2305dup) occurred in five pati
245 e genome duplication (WGD) or by small-scale duplication processes.
246  subtypes, 111 participants with CMT1A/PMP22 duplication progressed by 1.8 +/- 4.2 (12% change from b
247                         Mammalian chromosome duplication progresses in a precise order and is subject
248 sons carrying either the 22q11.2 deletion or duplication provides estimates of direct clinical releva
249                           After whole-genome duplication, Rab GTPase duplicates are more highly retai
250 agments and therefore, over-estimate the PCR duplication rate for DNA-seq and RNA-seq experiments.
251                            In our model, the duplication rate is also allowed to vary with the degrad
252  in the sequence data and estimating the PCR duplication rate is important to assess the frequency of
253 here is a useful tool for estimating the PCR duplication rate of high-throughput sequence datasets an
254 utational method to estimate the average PCR duplication rate of high-throughput sequence datasets th
255 t our method can accurately estimate the PCR duplication rate on paired-end as well as single-end rea
256 ed outlier samples with a 2-fold greater PCR duplication rate than other samples.
257 e contiguity, correctness, coverage, and the duplication ratio of the merged assembly compared to the
258 nd size of the transcripts indicate that the duplication represents an intermediate on the pathway to
259             Complete and robust human genome duplication requires loading minichromosome maintenance
260 ically identified with a 22q11.2 deletion or duplication, respectively.
261                                          The duplications segregated with the disease and were locate
262 s of paralogous genes suggest a whole-genome duplication shared with olive (Olea europaea, Oleaceae).
263                              For rare exonic duplications, six of 19 gene sets tested were enriched i
264  rather than coinciding with the deletion or duplication sizes.
265  A distinct disorder results from MECP2 gene duplication, suggesting that therapeutic approaches must
266        Children with the 22q11.2 deletion or duplication syndromes often display hearing loss and beh
267 sed in Ts65Dn mice that harbor a chromosomal duplication syntenic to human chromosome 21q.
268 enes are derived from an ancient tandem gene duplication that likely predates the radiation of the se
269 red to evaluate the effects of deletions and duplications that overlap specific genes.
270 f the first vertebrate-specific whole genome duplication, the affinity had increased (Kd approximatel
271 yntenic genes and a high rate of tandem gene duplications, the latter of which have given rise to 12
272  with their high propensity for whole genome duplication thus offer suitable animal model systems to
273 is difficult to consider diversification and duplication to be tightly correlated.
274 izontal gene transfer to loss ratio, but not duplication to loss ratio, correlates with genome size,
275 s 15q13.3 deletions and heterozygous 15q13.3 duplications to investigate the CHRNA7-dependent molecul
276 gene family size was obtained under a linear duplication-transfer-loss model with selection.
277 zed, and whether the teleost-specific genome duplication (TSGD) influenced complexity is unknown.
278 ts separation of chromosomes following their duplication until the appropriate time during cell divis
279  than L chromosomes from the point of genome duplication until the present day.
280 ent reporter activity in limbs undergoing PD duplication versus truncation, suggesting differences in
281                                         ABAT duplication was associated with Lennox-Gastaut syndrome
282                         The de novo 15q11-13 duplication was more prevalent in this Chinese populatio
283  Central Register with a 22q11.2 deletion or duplication was performed.
284                                          For duplications, we found that increased expression of CHRN
285 wo CMT1A pedigrees with confirmed PMP22 gene duplication were studied.
286                                         Four duplications were identified with a strong signal of div
287             Gene loss following whole genome duplication (WGD) is often biased, with one subgenome re
288 enes (ohnologues) retained from whole genome duplication (WGD) is thought to promote evolutionary div
289 lds for duplicates generated by whole genome duplication (WGD) or by small-scale duplication processe
290             66 66 References 66 Whole-genome duplication (WGD), or polyploidy, has important effects
291  small-scale gene duplications, whole-genome duplications (WGDs) copy entire pathways or networks, an
292  been shaped by the most recent whole-genome duplication, which suggests that ancient paralogues can
293                      Unlike small-scale gene duplications, whole-genome duplications (WGDs) copy enti
294                                Instead, gene duplication with divergence of one paralog and weak posi
295  map to uncover design rules that enable DNA duplication with high efficiency and fidelity.
296                  WGDs can be classified into duplications with higher, biased gene loss and bias in g
297                       Our data reveal that a duplication within the charophyte sister group to land p
298  enforce new constraints on the placement of duplications within a valid reconciliation.
299 eetles up to 12 times and more specifically, duplications within the UV opsin class have likely led t
300  functions at the earliest step in centriole duplication yet identified and plays important roles in

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