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1 lows detection of variant alleles below 0.1% allele frequency.
2 ignaling or to kill cells harboring a high K-allele frequency.
3 ionship between CWD prevalence and PRNP 132L allele frequency.
4  patients at levels as low as 0.002% variant allele frequency.
5 TERT(-146C>T) mutations present at different allele frequencies.
6 ome data and on somatic SVs with low variant allele frequencies.
7 ient and allele age from time series data of allele frequencies.
8  reported variants that had implausibly high allele frequencies.
9 e SNVs are prevalent at both rare and common allele frequencies.
10  SNV and indel detection at very low variant allele frequencies.
11 provide only summary statistics or aggregate allele frequencies.
12 -wide significance level regardless of minor allele frequencies.
13 ling simulations, which models data based on allele frequencies.
14  frequency 0.017) and rs116245325 (p.L1034F, allele frequency 0.0007) were associated with higher BP
15 ile the minor allele of rs61757359 (p.G541S, allele frequency 0.003) was associated with lower BP (P=
16 479618 (p.E967K, gnomAD non-Finnish European allele frequency 0.017) and rs116245325 (p.L1034F, allel
17 28 families with PIDs, with a variable minor allele frequency (0.8% to 40.5%).
18 Audit and Research, Tayside Scotland), minor allele frequency (=0.02), and randomized clinical trial
19 gle nucleotide polymorphism rs2571244, minor allele frequency = 0.08, P = 2.3 x 10-8).
20 or allele of the lead SNP (rs13417783, minor allele frequency = 0.14) decreased DPN odds by 36% (odds
21 s common among full-heritage Pima Indians (A allele frequency =0.54) but is monomorphic in the 1000 G
22 ic father and the rare NKX2-5 variant (minor allele frequency, 0.0012) from the unaffected mother.
23  UK biobank, where rs77059055 in TPM1 (minor allele frequency, 0.023; odds ratio, 0.83; P=0.002) rema
24 eatinine ratio (rs527493184 at ZBTB16, minor allele frequency=0.002, P=1.1x10(-8)).
25 ar filtration rate (rs58720902 at AQR, minor allele frequency=0.01, P=1.6x10(-8)) or urine albumin-to
26 ention Trial Evaluating Rosuvastatin], minor allele frequency=0.018) was used to replicate the associ
27  the TG response, we identified rs7350789-A (allele frequency=0.36), mapping to hepatic lipase (LIPC)
28 additional variant at PRNT (rs2422935, minor allele frequency=0.54, P=2.89x10(-8)) was significantly
29 le-nucleotide polymorphisms (SNP) with minor allele frequency 1%) to general cognitive function in a
30 ase-associated variants with relatively high allele frequency (1%-10%) in a nationwide Japanese cohor
31           After stringent filtering based on allele frequency, 1.4% of persons still had a candidate
32 s3211938 at CD36 was common in Blacks (minor allele frequency=10%), near monomorphic in European Amer
33 mericans, the X-linked G6PD G202A variant (T-allele frequency 11%) was associated with an absolute de
34 OR 1.37; 95% CI 1.21-1.56; P = 1.5 x 10(-6); allele frequency = 11.5%).
35 OR 1.62; 95% CI 1.32-1.98; P = 4.0 x 10(-6); allele frequency = 13.3%), but the polymorphism was asso
36              The mutation is extremely rare (allele frequency = 2.5 x 10-05), and the likelihood of t
37 dentified in CYP2R1 the low-frequency (minor allele frequency = 2.5%) synonymous coding variant g.149
38 ) that increased CAD activity and is common (allele frequency 20%) in African ethnicity.
39 orms all imputation approaches for all minor allele frequencies; (4) GIGI-Pick gives the best selecti
40                                 The range of allele frequency (44.1% to 55.6%) was established for ge
41 ost frequent mutation was H1069Q (c.3207C>A; allele frequency: 46.9%), followed by P767P-fs (c.2304du
42                             The rs11693320-A allele (frequency, ~80%) was associated with lower FVC (
43     Finally, we considered the transition of allele frequencies across geographic space and suggest t
44                          The distribution of allele frequencies across populations suggests a northwa
45  (42.6%, 19.7%), respectively, for which the allele frequency (AF) in the Japanese population was 2.2
46 NPD prevalence: 77%), the cumulative PTV/CNV allele frequency (AF) was 7.7% vs. 2.6% in control subje
47                          Ultrarare variants (allele frequency [AF] < 0.0001) of 35 genes responsible
48 en in Singaporean HCM (TNNI3:p.R79C, disease allele frequency [AF]=0.018; TNNT2:p.R286H, disease AF=0
49  heterozygote frequencies among populations (allele frequencies: African = 0.0016; East Asian = 0.004
50 can be cast as the difference between marker allele frequencies (AFs) estimated in each of the group
51 al cell-free DNA, as measured by TP53 mutant allele frequency, also affected assay sensitivity.
52 ection is surprisingly effective in altering allele frequencies among many different SNPs that share
53 arboring variants with highly differentiated allele frequencies among the ancestral populations.
54  quantitative trait loci (QTL) and differ in allele frequency among individuals that end diapause ear
55 esentation of haplotype frequencies based on allele frequencies and between-allele co-variances.
56 nced by hundreds of loci spanning a range of allele frequencies and effect sizes.
57 opulation stratification depends not only on allele frequencies and environmental structure but also
58 e marks in geographic arrangements of common allele frequencies and gene-environment correlations.
59 vity and specificity measurements as well as allele frequencies and identified HLA alleles that are c
60 genotyping assay, which we used to determine allele frequencies and identify FcgammaR haplotypes in m
61 leotide polymorphisms (SNPs) with high minor allele frequencies and in SNPs located in the predicted
62 ow researchers to easily compute and compare allele frequencies and LD statistics of dbSNP catalogued
63                  We show that differences in allele frequencies and linkage disequilibrium between Eg
64                                        Minor allele frequencies and population-attributable fraction
65                         However, higher risk allele frequencies and population-attributable risk perc
66 mergence tolerance probably due to low minor allele frequencies and presence of exceptions to the kno
67 ion with low nucleotide diversity, divergent allele frequencies and the most private alleles, and obs
68                            To increase their allele frequency and assess their phenotypic impact in a
69 ly accurate and strongly agree with expected allele frequency and crossover number.
70 ic filtering and prioritisation according to allele frequency and effect on protein and inheritance p
71 etic architecture of complex traits, such as allele frequency and effect size.
72 (serial monitoring of both KIT D816V variant allele frequency and NGS panels) to lend more diagnostic
73 ndamental statistical trade-off between risk allele frequency and odds ratio.
74 tumor, and mutant peptides with high variant allele frequency and predicted high HLA-binding affinity
75 a heritability model or partitioning SNPs by allele frequency and/or LD.
76 xtent to which they can annotate gene-names, allele frequencies, and variants having high impact on g
77 in the other GWASs due to differences in LD, allele frequencies, and/or sample size.
78 risons of sequence diversity, recombination, allele frequency, and selective pressures.
79 rved nucleotides, tended to have low derived allele frequency, and were depleted from promoters of es
80 wise fashion: mutant genes with high variant allele frequencies appear early in leukaemogenesis, and
81 mber of single cells and in cases where bulk allele frequencies are affected by copy number changes.
82 urate predictions than existing methods when allele frequencies are low, which is of clear advantage
83                                     SV minor allele frequencies are rarer than amino acid polymorphis
84 emogenesis, and mutations with lower variant allele frequencies are thought to be acquired later(1-3)
85  allowed us to detect mutations with variant allele frequencies as low as 0.001.
86 t of genotyped dogs was used to estimate the allele frequency as between 0.07-0.1 in the UK LA popula
87 or complex traits because of large shifts in allele frequencies at hundreds of loci under selection.
88 variation in the population leads changes in allele frequencies at one time point to be predictive of
89 on-DS ALL case-case analyses, comparing risk allele frequencies at these and other established suscep
90                                       Mutant allele frequency at baseline was associated with clinica
91 dology for the generation of a genome-wide B-allele frequency (BAF) signal profile from the reads and
92 n FFPE Assay yielded the log ratio (R) and B-allele frequency (BAF).
93  The algorithm accepts genotype calls and 'B allele' frequencies (BAFs) from at least two samples der
94            Combining both local ancestry and allele frequency based analyses, we identify a tripartit
95                              We compared our allele-frequency based approach with genotype-based appr
96                                        While allele frequency-based approaches that do not detect seg
97   Specifically, this tool implements a novel allele frequency-based feature selection algorithm, Lanc
98 researchers in using the LEI tool to develop allele frequency-based informative features to conduct a
99                                              Allele-frequency-based imputation of tumor (All-FIT) is
100 ty to identify single nucleotide variants at allele frequencies below 0.1%.
101 ependently from separate lineages, with rare allele frequencies below 0.5%.
102 total of 42 unique or rare (population minor allele frequency below 1%) nonsynonymous genetic variant
103 ls, there were no significant differences in allele frequencies between affecteds and controls (C/TTC
104 0%) in simulations with large differences in allele frequencies between cases and controls.
105 A genes were associated with large shifts in allele frequencies between catchments and in individual
106      AIMs exhibit substantial differences in allele frequency between ancestral populations.
107 ference was detected in MUC5B rs35705950 SNP allele frequency between bronchiectasis and healthy indi
108                                Changes in SV allele frequency between wild and farmed fish indicate p
109         The geographic mapping of each SNP's allele frequencies by population as well as visualizatio
110                                      For the allele frequency calculation, the implementation in the
111 data, which includes log R ratio (LRR) and B allele frequency, can be plotted against the reported CN
112 nt dam construction is explained by dramatic allele frequency change at this locus.
113       We estimate that at least 17 to 37% of allele frequency change is driven by selection in these
114  did not find strong evidence of directional allele frequency change or selection for Bd resistance g
115 o estimate what fraction of the variation in allele frequency change through time is driven by linked
116 we partitioned the proportion of variance in allele frequency change through time.
117                       We found that observed allele frequency changes are generally well predicted by
118                                     Observed allele frequency changes are primarily due to variation
119 omes from the genome-wide covariance between allele frequency changes observable from temporal genomi
120 and for short sleepers, the changes exceeded allele frequency changes that would be expected under ra
121                                              Allele-frequency changes between 1993 and 2006 (70 gener
122                           Uncorrected, these allele frequency clines severely confounded inferences o
123 EI to leverage summary-level statistics from allele frequency data, thereby avoiding the many restric
124                 A recent tally in the ALFRED allele frequency database finds 164 reference population
125 iant-specific prior information derived from allele frequency databases, consequence prediction algor
126 ified cancer-associated loci that have large allele frequency differences across African populations.
127 n that can lead to the accumulation of large allele frequency differences between populations due to
128 eutral demographic events can create similar allele frequency differences between populations.
129 election were identified using: (i) pairwise allele frequency differences; (ii) genome scan for overl
130 e genes and significant differences in their allele frequency distributions across breeds.
131 uild consensus sequences based on population allele frequency distributions.
132  considering effects of polygenicity, causal allele frequency divergence, and heritability.
133  as mixtures of unobserved populations whose allele frequencies drift over time.
134 rence wheat genotype-phenotype map, explored allele frequency dynamics over time and fingerprinted 44
135 d selection has a large impact on short-term allele frequency dynamics that is readily distinguishabl
136 erozygote phenotype and its consequences for allele frequency dynamics.
137 ants in Europeans, differences in the effect allele frequency, effect size and the linkage disequilib
138 e is calculated incorporating: i) population allele frequency estimates; ii) individual zygosity, det
139  lift, loci can exhibit conspicuous seasonal allele-frequency fluctuations, but often fluctuations ma
140              Correctly specifying population allele frequencies for each individual in early stage of
141     We then used Pool-seq to compare nuclear allele frequencies for high- or low-fitness hybrids.
142                               Using damaging allele frequencies for the corresponding human genes and
143 F(2) screen study to estimate the resistance allele frequency for Vip3Aa in H. zea populations in Tex
144 nabled accurate measurement of VAFs (variant-allele frequencies) for mutations, allowing the determin
145 ation and deconvolution of mutation type and allele frequencies from a single tumour sample.
146  proteins, as did all other variants with an allele frequency greater than 0.001.
147 s and insertion-deletion variants with minor allele frequencies &gt;1% and imputation quality scores >0.
148  5 x 10(-8)), where these variants had minor allele frequencies &gt;=1%.
149 t imputation quality of r(2) > 0.7 and minor allele frequency &gt; 0.005.
150  have mainly analyzed common variants (minor allele frequency &gt; 0.05).
151 than seen in the general population, variant allele frequency &gt; 0.3 of a deleterious allele in a know
152 almost 7 million genetic variants with minor allele frequency &gt; 5% and identified one single linkage
153    Associations between polymorphisms (minor allele frequency &gt;/= 15%) in 4 genes and seizure outcome
154 WAS) including low-frequency variants (minor allele frequency &gt;/=0.005) for BUA and VOS using a disco
155 e presence of any CHIP and CHIP with variant allele frequency &gt;0.1.
156            The percentage of SNPs with minor allele frequency &gt;0.10 was 95% and 91% in the euchromati
157 zard ratio associated with CHIP with variant allele frequency &gt;0.1: 1.48 [95% CI, 1.13-1.94]; P=0.005
158  [95% 1.10-1.68]; P=0.004; CHIP with variant allele frequency &gt;0.1: odds ratio, 1.40 [95% CI, 1.10-1.
159 % CI, 1.23-2.44]; P=0.001; CHIP with variant allele frequency &gt;0.1: odds ratio, 1.91 [95% CI, 1.30-2.
160 bolite pairs (p value < 1.2 x 10(-10), minor allele frequency &gt;= 1%, proportion of variance explained
161 ensitive approach, we identified CH (variant allele frequency &gt;=0.5%) in 62% of individuals.
162                        Sample size and minor allele frequency had a major influence on SPAEML's abili
163                   Remarkably, reported minor allele frequency had a substantial effect on concordance
164 considering linkage disequilibrium and minor allele frequency had the highest accuracies.
165                                              Allele frequency, haplotype-based, and ancient genome an
166 ecific rare variant, rs72725854 (A>G/T) (~6% allele frequency) has been associated with a ~2-fold inc
167 Parkinson's disease had significantly higher allele frequencies in a combined cohort of Japan and Tai
168 iptions of short-term evolutionary change in allele frequencies in a natural population to date.
169 the genome into three hidden states based on allele frequencies in genomic data: a symmetric state (s
170                    We measured SP-resistance allele frequencies in Malawian women participating in a
171 the sexes, whereas tests for the equality of allele frequencies in the sexes assume Hardy-Weinberg eq
172 -Weinberg equilibrium assume the equality of allele frequencies in the sexes, whereas tests for the e
173 15)), seven of which had crucially low minor allele frequency in European population.
174 n pairs, of which 421 SNVs segregate at > 1% allele frequency in human populations.
175 f additional mutations or increasing variant allele frequency in K/NRAS, RUNX1, IDH2, or NPM1 associa
176 ependent reversions indicated that reversion-allele frequency in metastatic sites is an important det
177 on between SSc prevalence and HLA-DPB1*13:01 allele frequency in multiple populations was observed (r
178 rediction method to calculate initial mutant allele frequency in tissue biopsy and blood samples with
179          Existing methods rely on population allele frequency information for accurate estimation of
180 stimator of Independence (LEI) that utilizes allele frequency information to prioritize the most info
181  of approximately 9,000 subclonal mutations (allele frequencies &lt;0.1%); of these, approximately 8,000
182 ts carry a very rare missense variant (minor allele frequency &lt; 0.0001) in BRIP1.
183 g two rare variants (European ancestry minor allele frequency &lt; 0.01, at 3p21.31 and 8p12), were sign
184 ced for the identification of rare variants (allele frequency &lt; 0.05) in 16.9 kB of SERPINA1.Measurem
185  heteroplasmies (Phred score > 10,000, minor allele frequency &lt; 0.5, number of mutant reads > 1).
186                          We identified rare (allele frequency &lt; 4x10(-5)) biallelic CPAMD8 variants i
187 riants in total, of which 27 were rare (ExAc allele frequency &lt;0.002).
188                         One SNV with a minor allele frequency &lt;0.01, (rs3025380 at DBH) was genome-wi
189 ssociated genomic regions and 87 rare (minor allele frequency &lt;= 0.01) variant BP associations (P < 5
190 nts, is capable of SNV detection at very low allele frequency (&lt;1%), and detects SNVs with high sensi
191 hnic groups, BAG3 rs17617337 was rare (minor allele frequencies&lt;0.05) in Asian and African ancestry p
192 cy functional protein-coding variants (minor allele frequency, &lt;=5%) measured by an exome array were
193 te-risk genes, particularly those with minor allele frequencies (MAF) of < 30%, have not been identif
194 e-nucleotide polymorphisms (SNPs) with minor allele frequency (MAF) > 0.1% and imputation quality sco
195 oni correction, rs505922 (beta: -6.5% [minor allele frequency (MAF) 0.32, P = 3.3 x 10(-8)]) located
196  significant association (rs146350366, minor allele frequency (MAF) 1.2%, P = 3.2 x 10(-8), odds rati
197 the tissue adjacent to the cartilage [mutant allele frequency (MAF) 6-8%], and were enriched in endot
198 y variant (rs1039215 in HBG2 and HBE1, minor allele frequency (MAF) = 0.03).
199 , rs9998811, rs7696092 and rs13145758 (minor allele frequency (MAF) = 25-44%; P < 3 x 10(-14)) of sol
200 ce attack and show the privacy loss in minor allele frequency (MAF) and chi-square queries.
201  effect size increases with decreasing minor allele frequency (MAF) and linkage disequilibrium (LD) c
202 h-quality imputation from markers with minor allele frequency (MAF) as low as 0.0001.
203 e, we develop a method to estimate the minor allele frequency (MAF) dependence of SNP effect sizes.
204 permutation threshold is influenced by minor allele frequency (MAF) of the SNPs, and by the number of
205 ously unreported variants had distinct minor allele frequency (MAF) spectra between people of Japanes
206 describes how heritability varies with minor allele frequency (MAF), linkage disequilibrium (LD) and
207 ily (ERF) study, we identified a rare (minor allele frequency (MAF)=1%) missense c.1114C>T mutation (
208 sociation with diabetes risk (combined minor allele frequency [MAF] 0.22%; odds ratio [OR] 2.02; 95%
209 studies, the 3q13.33 locus (rs9831894; minor allele frequency [MAF] = 0.40) was associated with DLBCL
210  mutation in MEPE, p.(Lys70IlefsTer26, minor allele frequency [MAF] = 0.8%), was associated with decr
211                            Ultra-rare (minor allele frequency [MAF], <=0.0001) CFH variants were iden
212               We identified 15 common (minor allele frequency, MAF >=5%) and nine low-frequency or ra
213     On the other hand, incorrectly specified allele frequencies may result in substantial bias in est
214 ypes using WES variants strictly filtered on allele frequency, mutation consequence, and evidence of
215                       Each copy of the minor allele (frequency of 4.7%) reduces height by 2.2 cm (4.4
216               For rare variation, with minor allele frequencies of 0.5% or less, very large samples o
217                                              Allele frequencies of all TRDN null variants identified
218    SVclone accurately determines the variant allele frequencies of both SV breakends, then simultaneo
219                                     Cellular allele frequencies of examined L1 insertions indicated h
220 vors of WNS, and found significant shifts in allele frequencies of genes associated with regulating a
221 We measured the corresponding changes in the allele frequencies of genomic variants responding to art
222 hole-genome sequencing data by utilizing the allele frequencies of heterozygous single nucleotide pol
223 le maintaining the ability to correctly call allele frequencies of known single nucleotide variants.
224                       Cellular or population allele frequencies of L1s were assessed by droplet digit
225 el associations of rare variants (with minor allele frequencies of less than 0.5%) in 4 genes at exom
226                             Those with minor allele frequencies of less than 44.1% were assumed to be
227 re-specify the patterns of clusters by minor allele frequencies of SNPs between cases and controls, a
228 lk analysis can only provide average variant allele frequencies of the targeted genes across all samp
229                                              Allele frequencies of these acquired variants were overa
230                                          The allele frequencies of these variants reversed course in
231                           Although the minor allele frequencies of TMEM40 rs11719526 were generally c
232                                        Minor allele frequencies of two fetal CD46 SNPs were significa
233  estimate specimen tumor purity based on the allele frequencies of variants detected in high-depth, t
234 enomics-classification, (2) appeared with an allele frequency of <1:10.000, and (3) segregated with D
235 tremely rare in a large population database, allele frequency of 0.000024.
236             The variant (p.Lys679Met) has an allele frequency of 0.0002 and is predicted to be a dama
237 hisms (SNPs) were discovered using a minimum allele frequency of 1% across the entire genome through
238 helial lipase (LIPG) gene, occurring with an allele frequency of 1% in the general population, which
239 ), and TT in 85 patients (10%), with a minor allele frequency of 30%.
240 isease model with 100% penetrance and a risk allele frequency of 5%.
241 al agenesis patients revealed a higher minor allele frequency of a SNP 3' of the GATA6 coding sequenc
242                                          The allele frequency of APOE4 was not significantly differen
243 eloid cancer-associated genes with a variant allele frequency of at least 2%.
244      BigTop uses the z-axis to display minor allele frequency of each SNP, allowing for the identific
245 show an inverse correlation of the worldwide allele frequency of functional KIR2DS4 with that of HLA-
246  3 parts of the study that establish (1) the allele frequency of germline variants (n = 100), (2) the
247 tumours revealed an extreme shift in variant allele frequency of somatic variants, suggesting that ce
248  a statistical test to determine whether the allele frequency of the putative variant is significantl
249 plasin A (Eda) genotypes to infer changes in allele frequencies over time.
250 he differences in linkage disequilibrium and allele frequency patterns across ethnic groups may incre
251 equencing read depth information and variant allele frequency patterns, to infer the true copy number
252  reveals the relative abundance of different allele frequency patterns.
253 es of adiposity in Pima Indians, where the G allele (frequency: Pima Indians = 0.60, Europeans <0.01)
254         We enumerated 49,138 rare (<1% minor allele frequency) pLoF mutations.
255 es the calculation of subpopulation specific allele frequency possible, which may shed light on selec
256  framework by leveraging individual-specific allele frequencies projected from reference genotypes on
257 elomeric SNPs indicated general agreement of allele frequencies (R = 0.95) and of the substitution ef
258                               Differences in allele frequencies remained constant through the studied
259 uals of African ancestry (~10% and ~1% minor allele frequency, respectively, and rare or monomorphic
260 ancestry informative variants with different allele frequency/selection pressure among (or between) a
261 t immigrants is substantial, with some large allele frequency shifts that otherwise may have been att
262 Comparisons of replicate lines show parallel allele frequency shifts that recapitulate responses to s
263 , show how this contributes to signatures of allele frequency shifts, and highlight how the rapid acc
264                                    The minor allele frequency showed the same effect size (OR > 1) am
265 oving its reliability in calling low variant allele frequencies somatic SNVs in low ctDNA levels plas
266 ustrating that genetic variation from a wide allele frequency spectrum contributes to cranial growth.
267 orary Ethiopian genomes, affects the overall allele frequency spectrum to an extent that makes it har
268 associations (P < 7.45 x 10(-11)) across the allele frequency spectrum, all of which replicate in an
269 abetes (T2D)-associated variation across the allele frequency spectrum, we conducted a meta-analysis
270 me variation, genome-wide, across the entire allele frequency spectrum.
271 oach to correct this bias using LD and minor allele frequency stratified inference (LDMS).
272 s study, the consistency of increase in 132L allele frequency suggests pathogen-mediated selection ha
273                          Analysis of variant allele frequencies supported a model of tumor growth inv
274 ences in linkage disequilibrium or in causal alleles frequencies), the prediction accuracy of polygen
275 on the sample size, the (unknown) population allele frequencies, the actual relatedness and the estim
276        Based on African population reference allele frequencies, the Apoliprotein E genotypes would b
277 onsequences that drive changes in population allele frequency, thereby illuminating the process of ev
278 d statistical performance of different minor allele frequency thresholds and a range of genetic effec
279 rift, natural selection, and gene flow shape allele frequencies through time.
280 rise SNVs at complex variant loci and at low allele frequency thus increasing the repertoire of detec
281  features like variant consequence and minor allele frequency to annotate the plot and addresses thes
282 n gene (BCR-ABL1) assay down to 0.01% mutant allele frequency to highlight the platform's utility for
283  whether these putatively adaptive shifts in allele frequencies translate into sufficient increases i
284  vast majority of human mutations have minor allele frequencies under 1%, with the plurality observed
285          VAF phasing uses changes in variant allele frequency (VAF) between tumor and normal samples
286 analyzed for acquired mutations at a variant allele frequency (VAF) of 1% or higher in 27 driver gene
287                          When a 2.5% variant allele frequency (VAF) threshold was applied, actionable
288 X1, and/or DNMT3A (A/R/D) pathogenic variant allele frequencies (VAFs) >= 30%, exhibited significantl
289 ge constraints imposed by the use of variant allele frequencies (VAFs, derived from bulk sequence dat
290                                          CD4 allele frequencies varied among wild chimpanzees, with h
291 ssociated nominally with BCG osteitis; minor allele frequency was 0.215 in 130 BCG osteitis cases and
292 in circulating tumor DNA BRAF(V600E) variant allele frequency was seen in 87% versus 0% of patients (
293 marize the asymmetric pattern of Neanderthal allele frequencies, we compiled the joint fragment frequ
294 g Dirichlet and Beta priors for genotype and allele frequencies, we derive marginal likelihoods for a
295 ed with cancer predisposition were analyzed; allele frequencies were compared with publicly available
296 cancer cell lines with increased KRAS mutant allele frequency were more sensitive to MAP kinase inhib
297                          Specifically, viral allele frequencies, which form the basis of many calcula
298 reeds, Greyhounds had the highest CYP2B11-H3 allele frequency, while CYP2B11-H2 was widely distribute
299 e ones (1,380 fish) to associate genome-wide allele frequencies with continuous distributions of envi
300  and led to divergence between treatments in allele frequencies, with regions showing strong divergen

 
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