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1 ure termination, tandem repeat, nonstop, and missense mutations).
2 y of mutant transcripts, or loss-of-function missense mutation.
3 les, which was prevented by an AH-disrupting missense mutation.
4 ity of AME resulting from each known HSD11B2 missense mutation.
5 ygous c.206A-->T transition, causing an E69V missense mutation.
6 DD identified 21 new patients with identical missense mutations.
7 ntricular ejection fraction, than those with missense mutations.
8 and can result from alpha2-chimaerin (CHN1) missense mutations.
9 n EBF3 include multiple loss-of-function and missense mutations.
10 notype due to homozygous choline transporter missense mutations.
11 rs (NDDs) and highlight 35 genes with excess missense mutations.
12 rly understood oncogenic activity encoded by missense mutations.
13 valuate the structural consequences of these missense mutations, a combination of biophysical and cel
16 relatives) heterozygous for a constitutional missense mutation affecting one of five neighboring NF1
18 Whole-exome sequencing revealed homozygous missense mutations affecting exostosin-like 3 (EXTL3), a
21 type correlations have been reported for NF1 missense mutations affecting p.Arg1809 and a single amin
22 mune pathology was observed in patients with missense mutations affecting the SET domain and its adja
23 dies have identified recurrent but divergent missense mutations affecting the substrate-recognition d
28 The E1841K mutation is among the common MYH9 missense mutations and has been associated with nephropa
29 rtantly, AIS cases harbor mainly non-glycine missense mutations and lack the clinical features of mon
30 isruptive CNVs and SNVs, resulting in severe missense mutations and mapping to predicted fetal brain
32 mine the effects of Rett-syndrome-associated missense mutations, and make comparisons to the related
34 Protein structural analysis reveals that the missense mutations are either close to the ATP or peptid
35 Amino acids affected by likely pathogenic missense mutations are either crucial for the stability
36 Gln358SerfsTer13 frameshift, and p.Gln376Arg missense mutations are likely to impact the interaction
38 0% of the patient population with identified missense mutations, are located in the interface between
39 an familial hemiplegic migraine type 1 R192Q missense mutation as well as in wild-type mice and rats.
40 To address this question, we asked whether a missense mutation associated with human stuttering cause
41 compared with two truncating mutations, two missense mutations associated with less severe CKD in ad
45 , ERBB2, TP53, and CTNNB1) that had enriched missense mutations at their phosphorylation sites in pan
46 e exome sequencing revealed the heterozygous missense mutation c.1067G > A (p.Cys356Tyr) in ANO5 gene
47 Notably, we found the identical homozygous missense mutation c.1382C>T (p.Pro461Leu) in four affect
48 on of the PA phenotype with the heterozygous missense mutation c.4136G>T (p.Arg1379Leu) in cadherin-r
50 e-exome sequencing, we identified homozygous missense mutations c.1382C>T, c.1537C>T, c.1970A>G, and
51 member of the calpain proteases: a paternal missense mutation (c.1511C>A; p.P504Q) and a maternal de
52 ntified the same, cosegregating heterozygous missense mutation (c.4447G>A; p.E1483K) in SCN8A, encodi
55 nic splicing mutation (c.1164+5C>T), and six missense mutations (c.152C>T [p.Ser51Leu], c.160_161deli
60 consanguineous family revealed a homozygous missense mutation, c.973C>T (p.His325Tyr), in RCBTB1.
61 hree unrelated families harbor either of two missense mutations, c.347G>T p.(Arg116Leu) or c.1106C>T
62 al methods have been proposed to predict how missense mutations can affect protein structure and func
64 These results reveal how disease-causing missense mutations can disrupt transcriptional cooperati
66 contain multiple tubulin isotypes, and their missense mutations cause a range of neurodevelopmental d
68 , cytosolic isoleucyl-tRNA synthetase (IARS) missense mutations cause hereditary weak calf syndrome.
69 o testis in mammals and represents the first missense mutation causing isolated, non-syndromic 46,XX
70 mutations causing non-lethal optic atrophy, missense mutations causing lethal congenital pontocerebe
73 siblings, we identified a single homozygous missense mutation (chr15.hg19:g.48,626,619A>G) located i
75 icacy and how genetic ablation via the R139C missense mutation confers sensitivity to thiopurine trea
76 ransgenic animals expressing Drosophila Fig4 missense mutations corresponding to human pathogenic mut
78 bers in our family cosegregated with a novel missense mutation Cys694Arg that alters a highly conserv
79 with classic or later-onset FD caused by GLA missense mutations developed prominent and similar cardi
81 nd biochemical data indicate that most CDC73 missense mutations disrupt the folding of the hydrophobi
89 of the deleterious effects caused by K1/K10 missense mutations found in patients with phenotypic ski
91 ply our method to a dataset of 4,061 de novo missense mutations from published exome studies of trios
95 ecombinant PPA2 enzymes modeling hypomorphic missense mutations had decreased activity that correlate
98 y a hypertensive phenotype, and several RGS2 missense mutations have been found predominantly in hype
99 ixed-lineage leukemia (MLL) in leukemia, and missense mutations have been identified in Wilms tumor a
104 novo mutations in this gene, including five missense mutations, identified by the Deciphering Develo
109 that the majority of patients have the T60A missense mutation in ATTR where tyrosine is replaced by
110 ial retrusion is limited to association of a missense mutation in BMP3 among small brachycephalic dog
111 and the late2-1D mutant was found to carry a missense mutation in CDFc1 that impairs its capacity to
113 mosome 11 (logarithm of the odds = 7.4) to a missense mutation in cytoplasmic FMR1-interacting protei
114 viduals with idiopathic SZ identified a rare missense mutation in DGCR2, further suggesting that DGCR
115 g identified candidate variants, including a missense mutation in DUOX2 that impaired its function an
118 DPKD-affected families identified one with a missense mutation in GANAB, encoding glucosidase II subu
119 d mapped, one was strongly correlated with a missense mutation in Gatm in a recessive model of inheri
121 alate, we discovered that they share a novel missense mutation in IFT88 (c.915G > C, p.E305D), sugges
123 (rs12129938 in PCNXL2), 3q26.2 (rs6793295 a missense mutation in LRCC34 near TERC), 5q22.1 (rs732274
124 isolated genetic entity CMT2G is caused by a missense mutation in LRSAM1 and should be reclassified a
125 with at least one truncation or deleterious missense mutation in more than 90% of the captured wheat
127 dings establish L35P as the first pathogenic missense mutation in PALB2 and directly demonstrate the
128 ickle cell disease results from a homozygous missense mutation in the beta-globin gene that causes po
129 hole-exome sequencing, we identified a novel missense mutation in the binding domain of the STAT3 pro
130 ntified a unique patient with a heterozygous missense mutation in the coiled-coil domain of STAT5B th
140 nd we identified the c.2810C>G (p.Pro937Arg) missense mutation in the zinc finger protein 687 gene (Z
141 ctional evidence implicating the novel A178D missense mutation in titin as the cause of a highly pene
144 regulatory gene WDR1 We report a homozygous missense mutation in WDR1 in two siblings causing period
145 utations in 58 patients from 31 families and missense mutations in 19 patients from 14 families.
150 identified 11 male patients with hemizygous missense mutations in ATP6AP1, encoding accessory protei
151 iopulmonary involvement identified biallelic missense mutations in ATP6V1E1 and ATP6V1A, which encode
153 n approach for assessing the contribution of missense mutations in carcinogenesis is to identify gene
154 identity, including MAFB, or by heterozygous missense mutations in CHN1, which encodes alpha2-chimaer
155 tified three families affected by homozygous missense mutations in CIT, encoding citron rho-interacti
156 Here we identified six different de novo missense mutations in DHX30 in twelve unrelated individu
157 targeting" can be used effectively to study missense mutations in DNA mismatch repair (MMR) genes.
158 ts shed new light on the mechanisms by which missense mutations in DNA-binding domains of transcripti
160 europathies are linked to heterozygosity for missense mutations in five ARS genes, which points to a
161 e sequencing identified de novo heterozygous missense mutations in four probands with intellectual di
162 ntified three patients with novel homozygous missense mutations in FOXI1 (p.L146F and p.R213P) predic
163 cEDS can be caused by heterozygosity for missense mutations in genes COL5A2 and COL5A1, which enc
164 pical of TTD who harbor different homozygous missense mutations in GTF2E2 (c.448G>C [p.Ala150Pro] and
165 ic cancers reportedly contain high-frequency missense mutations in histone H3, yet the underlying onc
168 stature, we identified compound heterozygous missense mutations in KIF14 (NM_014875.2;c.2545C>G;p.His
176 We identified the properties of de novo missense mutations in patients with neurodevelopmental d
178 to the loss of protein expression; however, missense mutations in PBRM1 have been identified and ten
179 althy children who are heterozygous for rare missense mutations in POLR3A (one patient), POLR3C (one
180 me sequencing revealed compound heterozygous missense mutations in PPA2 in affected infants of each f
181 r patients showed a heterozygous deletion or missense mutations in PPP2R4 Cancer-associated PTPA muta
182 rebellar ataxia type 23 (SCA23) is caused by missense mutations in prodynorphin, encoding the precurs
183 five individuals with two recurrent de novo missense mutations in RAB11B; c.64G>A; p.Val22Met in thr
186 e on an "experiment of nature" in which rare missense mutations in tau cause familial neurodegenerati
187 cess of COPII-mediated vesicle transport and missense mutations in TFG cause several neurodegenerativ
188 ents with PCDH19-FE, about half of which are missense mutations in the adhesive extracellular domain.
190 ongenital skeletal muscle disorder caused by missense mutations in the beta-cardiac/slow skeletal mus
192 tic activity and stability of GlnRS, whereas missense mutations in the catalytic domain induce misfol
193 we report the identification of heterozygous missense mutations in the CTNNA1 gene (encoding alpha-ca
196 and structural simulations for three de novo missense mutations in the GABAA receptor beta3 subunit g
201 movements, and can be caused by heterozygous missense mutations in the kinesin motor protein KIF21A o
202 of the protein, but may contrast the role of missense mutations in the lysine acetyltransferase domai
203 nalyzed NK cells from patients with CHS with missense mutations in the LYST ARM/HEAT (armadillo/hunti
204 METDelta14-driven NSCLC, only to observe new missense mutations in the MET activation loop, critical
205 e also report the identification of 2 unique missense mutations in the NME proteins in patients with
206 ur unrelated pedigrees to identify biallelic missense mutations in the nuclear-encoded mitochondrial
207 air cell function.SIGNIFICANCE STATEMENT Two missense mutations in the Pejvakin (PJVK or DFNB59) gene
208 consanguineous families, we found homozygous missense mutations in the PNPLA1 gene, six of them being
209 resistance occurs through the acquisition of missense mutations in the rifampin resistance-determinin
213 in Man (OMIM) # 614558] is caused by de novo missense mutations in the voltage-gated sodium channel g
215 N-Ethyl-N-nitrosourea-induced (ENU-induced) missense mutations in Tpm4 or targeted inactivation of t
218 aortic aneurysms and dissections (TAAD) are missense mutations in vascular smooth muscle (SM) alpha-
219 ng the initial case, with three heterozygous missense mutations in WFS1 (4/5 confirmed de novo).
221 zation and binding dynamics for twelve MeCP2 missense mutations (including two novel and the five mos
227 the protein, we show that YY1 deletions and missense mutations lead to a global loss of YY1 binding
228 range of molecular mechanisms by which FVIII missense mutations lead to moderate to severe hemophilia
229 Majority of p53 mutations in cancer are missense mutations, leading to the expression of full-le
230 istinct disease phenotypes: gain-of-function missense mutations, linked in two different families to
232 In addition, we show that several PCDH19-FE missense mutations localize to the adhesive interface an
233 hinia revealed that 84% of probands harbor a missense mutation localized to a constrained region of S
234 In contrast, heterozygous gain-of-function missense mutations, mainly localized at the C terminus,
235 In vitro studies demonstrated that SNCA missense mutations may either enhance or diminish alphaS
237 Here, we mapped more than 47,000 somatic missense mutations observed in approximately 7,000 tumor
238 This study describes families with a novel missense mutation of LRSAM1 gene and explores pathogenic
239 mouse model for Costeff syndrome, in which a missense mutation of the mitochondrial membrane protein,
240 cing of candidate genes identified two novel missense mutations of Cx50, Cx50P59A (c.175C > G) and Cx
244 ubunits including EED also contributing, and missense mutations of some of these residues have been f
248 for quantifying the effects of single-point missense mutations on affinities of small molecules for
251 uate the effects of experimental and disease missense mutations on protein structure and interactions
254 9886A>G was located in exon 9 leading to the missense mutation p.Lys330Glu (K330E) in the kringle 3 d
255 ort a pair of siblings carrying a homozygous missense mutation p.P333L in EEF1A2 who exhibited global
257 sability (XLID) and dysmorphic features: one missense mutation (p.Arg284Pro) and one mutation leading
261 s demonstrate that both FLCN H255Y and K508R missense mutations promote aberrant kidney cell prolifer
262 n order to determine if FLCN H255Y and K508R missense mutations promote aberrant kidney cell prolifer
263 spontaneous mouse mutant shaky, caused by a missense mutation, Q177K, located in the extracellular b
266 tudies revealed altered functionality of the missense mutations R52G, G64V, A92T, P94S, P96L, A106T a
268 We conclude that 1) the A488P and R655C missense mutations result in a GC-B conformation that mi
269 shift, nonsense, and essential splicing) and missense mutations resulting in poor residual conductanc
272 rom subjects with a heterozygous GATA4-G296S missense mutation showed impaired contractility, calcium
276 We identified mutually exclusive, mosaic missense mutations that alter glutamine at amino acid 20
277 t 72% of cancer-associated ATM mutations are missense mutations that are enriched around the kinase d
279 dds with the concept of broad functionality, missense mutations that cause Rett syndrome are concentr
281 e disorders caused by private, non-recurrent missense mutations that result in varying phenotypes are
282 These observations suggest that some of the missense mutations that segregate in human populations,
283 ation (Ile469_Cys471delinsMetLeu) and 8 TGM1 missense mutations that to our knowledge have not been p
284 c mutant peptides (neoantigens) from somatic missense mutations, the field currently lacks a method f
285 ions, four are nonsense mutations, seven are missense mutations, two are frame shift mutations and on
286 Functional characterization of four selected missense mutations using whole cell patch-clamping in ts
287 amily, a homozygous c.5072G>C (p.Cys1691Ser) missense mutation was detected in an individual with SIT
288 derstand the biological consequences of this missense mutation, we created transgenic mice carrying t
289 unrelated patients harboring an RBM20 R636S missense mutation were reprogrammed to human induced plu
293 germline mutations, which were predominantly missense mutations, were associated with less typical pe
294 An X-chromosome exome screen identified a missense mutation, which encodes an amino acid in the te
296 plicated in membrane recognition and Jagged1 missense mutations, which affect these loops and are ass
297 lled classic BS patients carrying homozygous missense mutations with well-described functional conseq
298 lf of all human cancers lose p53 function by missense mutations, with an unknown fraction of these co
299 topology of dysferlin and show how a single missense mutation within dysferlin can exert local chang
300 e novel mutations were identified, including missense mutations within important functional domains a
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