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1 5249 controls following imputation with 1000 Genomes data).
2 ncultivated, under-studied and lacks nuclear genome data.
3 file alignments based on available microbial genome data.
4 re it can be combined or compared with other genome data.
5 el with parameters estimated from Drosophila genome data.
6 order to capture, interpret and compare pan-genome data.
7 cted on the basis of statistical analyses of genome data.
8 with renal agenesis and analyzed their exome/genome data.
9 ing, annotating and comparing metagenome and genome data.
10 d by the ongoing rapid accumulation of whole-genome data.
11 -gene (family), and some are based on entire genome data.
12 coalescent-based approach to simulate whole genome data.
13 amically visualize multi-species comparative genome data.
14 ional resources owing to the large volume of genome data.
15 ups previously underrepresented in available genome data.
16 ently to scaffold the low-coverage draft dog genome data.
17 oncerning the ongoing generation of nematode genome data.
18 eukaryotic genomes and the incomplete human genome data.
19 ction is only just beginning, fuelled by the genome data.
20 sequence types (STs) were extracted from the genome data.
21 ll make a major contribution to interpreting genome data.
22 of lesser studied drosophilid taxa in whole-genome data.
23 ogenetic analysis and investigation of whole genome data.
24 analysis and interpretation of K. pneumoniae genome data.
25 f extracting multilevel structure from whole-genome data.
26 ere supported by a study of real MAG-isolate genome data.
27 on for a subset of 1610 samples that provide genome data.
28 large-scale generation of full-length virus genome data.
29 ainment of data-driven biomarkers from whole-genome data.
30 s are collected from the annotated human DNA genome data.
31 y or in addition to structural analysis from genome data.
32 logenetic problems based on analyses of real genome data.
33 e markers with patternMarkers requires whole-genome data.
34 It is important to protect human genome data.
35 reliably detect contamination in single-cell genome data.
36 ex of cryptic species is not supported by mt genome data.
37 rrent interest and can scale to handle whole-genome data.
38 g better serving the demands of contemporary genome data.
39 user-friendly visualization tool for the 293 genome data.
40 n gleaning medically useful information from genome data.
41 et from a mouse QT locus study, and the 1000 Genomes data.
42 MegaChip genotypes were imputed to Thousand Genomes data.
43 rs applied to different subdivisions of 1000 Genomes data.
44 sociation studies was imputed by use of 1000 Genomes data.
45 document links between metabolome and (meta)genome data, aiding identification of natural product bi
47 estral repeats; and three derived from human genome data alone, consisting of (4) SNP density, (5) fr
59 a useful tool for the systematic analysis of genome data and is available via a server on the world w
61 performed existing algorithms on real cancer genome data and on synthetic tumors in the ICGC-TCGA DRE
63 cation and then NS, which provided extensive genome data and revealed probable pathogen Haseki Tick V
64 orphism (SNP) genotyping and then with whole-genome data and show how an understanding of evolution i
65 insights gained from having access to whole-genome data and the challenges that remain with respect
66 of enzyme-encoding genes within unannotated genome data and their visualization in the context of th
67 use a simulated data generated from the 1000 genomes data and illustrate that we can easily detect up
69 nomics include discovering novel pathways in genome data, and discovering functional interaction part
70 ate members of the BAS and MEG classes using genome data, and generated an alignment of vertebrate an
71 gn mixtures of assembled draft and completed genome data, and is robust in identifying a rich complem
75 f 'sequence everything', we argue that whole-genome data are pivotal to guide informed taxonomic infe
76 individual cell is captured from nature and genome data are produced from the amplified total DNA.
77 ate genomes with a particular focus on human genome data as well as data for key model organisms such
78 ve maximum knowledge from existing microbial genome data as well as from genome sequences to come.
82 nting the "pangenome." Despite the volume of genome data available, gene prediction and annotation ar
83 omparison with the human gene from the Human Genome Data Bank revealed no significant homology in the
85 er enzyme, GTK/KAT I, is listed in mammalian genome data banks as CCBL1 (cysteine conjugate beta-lyas
87 (EKI1) was identified from the Saccharomyces Genome Data Base (locus YDR147W) based on its homology t
88 roduct was identified from the Saccharomyces Genome Data Base (locus YJL100W) as a putative member of
89 identified from the Saccharomyces cerevisiae genome data base as homologues of ELO1, a gene involved
92 A search of the Saccharomyces cerevisiae genome data base for cytochrome b5-like sequences identi
96 ived from partial sequences in the T. brucei genome data base that were identified by homology with k
99 ed to as hclA), identified in the Drosophila genome data base, by P-element-mediated germ line rescue
106 ecalis was identified by searching bacterial genome data bases for proteins containing domains homolo
109 sequence (PS00571) were identified in plant genome data bases, and a cDNA was isolated by reverse tr
116 entation in biogeochemical models, microbial genome data can be leveraged to infer key functional tra
118 bacterial epidemics and illustrates how full-genome data can be used to precisely illuminate the land
124 rate molecular network information and tumor genome data could complement gene-based statistical test
125 f AMS.(7)(,)(8) However, the availability of genome data covering basal AMF phylogenetic nodes (Archa
126 ; this variant has not been seen in the 1000 Genomes data, dbSNP, or the Exome Sequencing Project.
128 e composition or isoelectric point) to whole-genome data (e.g. absolute mRNA expression levels or the
129 ver-increasing quality and quantity of whole-genome data, evolutionary insight into origins of distin
132 ight on these questions, we report new whole-genome data for 28 individuals dated to between ~ 4700 B
133 lysis of 21 rhodophyte ptDNAs, including new genome data for 5 species, turned up 22 plasmid-derived
137 oroplast DNA-derived sequences among nuclear genome data for C. reinhardtii, which also contrasts wit
140 be modified, yet we still lack comprehensive genome data for species that represent the most extreme
141 resents a collaborative effort to locate all genome data for the apicomplexan parasite Cryptosporidiu
144 To address these issues, we employed plastid genome data from 138 species, including heterokont algae
150 Here, we re-sequenced and analyzed whole genome data from 51 wild accessions and 53 representativ
153 is of the C2/1112-15 dataset, based on whole-genome data from a sparse time series consisting of 5 ra
156 vide insight into this topic through ancient genome data from Bolivian maize dating to ~500-600 BP, i
159 nd analyses of selected groups in context of genome data from closely related isolates, providing a u
160 ddress this gap, we used high-coverage whole-genome data from Indigenous American ancestries in prese
167 e general outline of the tree using complete genome data from representative prokaryotes and eukaryot
169 pproach was used, which intersects (1) whole-genome data from structural and sequence pathogenic loss
170 eq; we then integrated these data with whole-genome data from surveillance sequencing, thereby placin
173 isease Reporting System with available viral genome data, from 1 December 2020 to 14 January 2022.
175 iduals with five types of cancer using whole-genome data generated by The Cancer Genome Atlas Researc
178 tical inference based on high coverage whole-genome data (greater than 60x) from contemporary African
179 rs, the increasing availability of microbial genome data has made it possible to access the wealth of
182 allow them to visualize, analyze, and modify genome data in an interactive and generalized manner.
185 ware tools and compared with other RNAseq or genome data including Arabidopsis pollen, Lilium vegetat
186 continuing exponential accumulation of full genome data, including full diploid human genomes, creat
187 eloped new infrastructure for handling whole genome data, including increased methods for quality con
188 vs 3%, odds ratio [OR] = 6.9, P < .001), and genome data indicated matching carriage and infection is
194 The inference of demographic history from genome data is hindered by a lack of efficient computati
195 sequence encompassing the majority of public genome data is rapidly retrieved from GenBank or Ensembl
198 to new technology for efficiently generating genome data, machine learning methods are urgently neede
201 yping of CNPs strongly correlates with whole-genome data (median r(2) = 0.91), especially for loci wi
202 lysis applications are provided as exemplary genome data mining tools over these internal databases.
204 epresenting 63 species, as well as sequenced genome data of 16 species, together representing 50 of t
206 PR5/PR5-L protein sequences were mined from genome data of a member of each of two main angiosperm g
209 EPIC array) and extend it by analysing whole genome data of smokers and non-smokers from Generation S
213 bout one day to assemble 30-fold human whole-genome data on a modern 16-core server with 85 GB RAM at
215 onstruct de novo linkage maps on 7-12x whole-genome data on the Red postman butterfly (Heliconius era
216 ecome a leading technology, generating whole-genome data on the transcriptional alterations caused by
217 olute size of the coding region of the human genome, data on codon usage and pseudogene-derived mutat
218 election and testing, we show that for human genome data, one-piece PC (PC1) is often in a statistica
219 sentation of genetic variation than the 1000 Genomes data, particularly for rare variants and in the
222 de seven new genome assemblies, a Neandertal genome data portal, phenotype and disease association da
223 lysis of the EST data compared with the Fugu genome data predicts that approximately 10,116 gene tags
225 es manage the results of different microbial genome data processing and interpretation stages, and re
226 atures have been added to RefSeq prokaryotic genomes data processing pipeline including the calculati
228 lows integration of different types of yeast genome data provided by different resources in different
229 n the consensus sequence and publicly funded genome data provided locations of 2.1 million single-nuc
230 formation with the corresponding protein and genome data provides a suitable framework for studying t
231 analysis of mass balance in short-read whole genome data provides a surprisingly complete picture of
233 can process this growing volume of bacterial genome data, providing rapid results, but that remain si
234 followed from new genomic technologies, new genome data resources, and global collaborations that co
236 s with additional markers imputed using 1000 Genomes data; results were summarized using fixed-effect
239 vate to Africa, Asia, and Europe in the 1000 Genomes data reveals that private European variation is
240 omise of sequencing is often just that, with genome data routinely failing to reveal useful insights
242 The PCAP program was tested on a mouse whole-genome data set of 30 million reads and a human Chromoso
243 haic hominins to humans and emerging ancient genome data sets for domesticated animals and plants, th
246 owever, inferring genealogy from large-scale genome data sets quickly, accurately, and flexibly is st
247 pes is significantly underestimated in whole genome data sets, while the predicted haplotypes over th
248 analyze the recently released ExAC and 1000 Genomes data sets to determine how human genetic variati
250 ools can easily compare tens of thousands of genomes, data sets can reach millions of sequences and b
251 interoperable data standards among reference genome data-sharing platforms inhibits cross-platform an
252 s community together with the emergent human genome data should allow for the rapid identification of
254 , targeted resequencing and whole-exome and -genome data, specifically focusing on the progression of
255 A sequencing costs dropping <$1000 for human genomes, data storage, retrieval and analysis are the ma
257 in subsets of tissue types and evidence from genome data supported the idea of KRAS- and NRAS-engaged
258 pite the enormous proliferation of bacterial genome data, surprisingly persistent collections of bact
260 also supports some novel approaches to whole-genome data that take advantage of whole-genome coverage
263 Taken together with somatic breast cancer genome data, these results point to a breakdown in a BRC
264 the availability of sufficient high-quality genome data to address quantity and quality of HGT in th
265 ing to develop new technologies that exploit genome data to ask entirely new kinds of questions about
266 uses this system in combination with cancer genome data to define new genes and pathways involved in
267 says with computational analyses of emerging genome data to define site- and species-specific polyade
268 ibe current knowledge of the pathway and use genome data to discuss what elements are present in Dros
269 o investigate recent studies utilizing whole-genome data to identify clines in D. melanogaster and se
270 During an epidemic, scientists use viral genome data to infer a shared evolutionary history and c
271 e of genetic gain in breeding by using whole-genome data to predict the breeding value of offspring.
272 and machine-learning approaches to bacterial genome data to quantify the roles of badgers and cattle
275 omparisons with the Methanococcus jannaschii genome data underline the extensive divergence that has
277 erimentally that by fusing sequential and 3D genome data using ChromeGCN, we get a significant improv
280 he past year include PubMed, PMC, Bookshelf, genome data viewer, Assembly, prokaryotic genomes, Genom
281 ted in the past year include PMC, Bookshelf, Genome Data Viewer, SRA, ClinVar, dbSNP, dbVar, Pathogen
283 nstructing metabolic networks from annotated genome data, visualizing experimental data in the contex
285 he integration of three different sources of genome data, we generate average 3D faces to illustrate
287 in addition to other publicly available bird genome data which serve as a valuable foundation for AVI
288 functional genomics is currently limited by genome data, which are available for only a few model or
289 me locus in many individuals from population genome data, which provides assessment of structural var
291 timately, a better linkage of metabolome and genome data will likely also be needed particularly cons
294 Mine data warehousing system, integrates the genome data with data from external sources and facilita
297 hnologies that generate comprehensive, whole-genome data with single nucleotide resolution have alrea
299 correspondents and SPs-whose aim is to share genome data without individuals' consent and undetected-
300 urrounding rs9679290 using HapMap 3 and 1000 Genomes data yielded two additional signals, rs4953346 (