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1 ry to identify patients at high risk for the Lynch syndrome).
2 women with a mismatch repair gene mutation (Lynch syndrome).
3 ce and prevention programs for patients with Lynch syndrome.
4 ipation rate among relatives at risk for the Lynch syndrome.
5 trategies for patients with colon cancer and Lynch syndrome.
6 Lynch syndrome, whereas its absence excludes Lynch syndrome.
7 arget susceptible to aberrant methylation in Lynch syndrome.
8 ven those meeting the strongest criteria for Lynch syndrome.
9 tions of this gene which are associated with Lynch syndrome.
10 adenoma and carcinoma among persons with the Lynch syndrome.
11 g appropriate cancer screening in women with Lynch syndrome.
12 l adenoma or carcinoma among carriers of the Lynch syndrome.
13 lar studies consistent with the diagnosis of Lynch syndrome.
14 eral salpingo-oophorectomy in women with the Lynch syndrome.
15 ncer is the most common cancer in women with Lynch syndrome.
16 ly diagnosed endometrial cancer patients had Lynch syndrome.
17 tic testing in a large population at risk of Lynch syndrome.
18 r genes, and terms related to the biology of Lynch syndrome.
19 metrial and ovarian cancer in women with the Lynch syndrome.
20 ance, but colorectal cancer was only seen in Lynch syndrome.
21 e classified as Lynch syndrome and 68 as non-Lynch syndrome.
22 seen major advances in the understanding of Lynch syndrome.
23 HNPCC may appropriately identify women with Lynch syndrome.
24 and DNA mismatch repair genes for suspected Lynch syndrome.
25 et either clinical or molecular criteria for Lynch syndrome.
26 ditary non-polyposis colon cancer (HNPCC) or Lynch syndrome.
27 tumors and that 7% of cases had features of Lynch syndrome.
28 ally in sessile serrated adenomas/polyps and Lynch syndrome.
29 ssification of VUSs in genes associated with Lynch syndrome.
30 nts with double somatic colorectal tumors or Lynch syndrome.
31 tation spectrum, and risk of CRC in AAs with Lynch syndrome.
32 lel sequencing in individuals with suspected Lynch syndrome.
33 ith the most common inherited CRC condition, Lynch syndrome.
34 One family met diagnostic criteria for Lynch syndrome.
35 especially appealing goal for patients with Lynch syndrome.
36 that of individuals of European descent with Lynch syndrome.
37 ealthy intestinal tissues from patients with Lynch syndrome.
38 idelines for the management of patients with Lynch syndrome.
39 nt of neoplasias and tumors in patients with Lynch syndrome.
40 n linked to many genetic diseases, including Lynch syndrome.
41 ously identified in individuals suspected of Lynch syndrome.
42 the MLH1 promoter are likely to be caused by Lynch syndrome.
43 patients or clinicians reduced detection of Lynch syndrome.
44 y nonpolyposis colorectal cancer (HNPCC), or Lynch, syndrome.
45 tient illustrates two current concepts about Lynch syndrome: 1) adenomas are the cancer precursor and
47 (83.3%) had at least 1 gene mutation: 37 had Lynch syndrome (13, MLH1 [including one with constitutio
48 th Lynch syndrome, 22 with mutation-negative Lynch syndrome, 16 with familial adenomatous polyposis,
50 with 4 of 18 (22%) tumors from patients with Lynch syndrome, 2 of 10 (20%) tumors with MLH1 hypermeth
51 ereditary cancer syndrome, including 23 with Lynch syndrome, 22 with mutation-negative Lynch syndrome
52 ects had pathogenic variants associated with Lynch syndrome (25 with mutations in MSH2, 24 with mutat
53 h confirmed cases of Lynch syndrome (SIR for Lynch syndrome, 6.04; 95% confidence interval [CI], 3.58
54 olyps--and tissue derived from patients with Lynch syndrome--78 low-grade dysplastic adenomas, 57 hig
56 202 families meeting Amsterdam criteria for Lynch syndrome accounted for 2.6% of all colorectal canc
57 te instability (MSI), which is a hallmark of Lynch syndrome, activities must also exist that unwind s
58 ereditary nonpolyposis colorectal cancer (or Lynch syndrome) adds difficulty to its diagnosis, use of
61 lonoscopic surveillance for individuals with Lynch syndrome, although the optimal age at initiation a
62 orectal cancer to identify families with the Lynch syndrome, an autosomal dominant cancer-predisposit
64 ent management of families suspected to have Lynch syndrome and demonstrates the value of multidiscip
66 cancers; 3% are of these are associated with Lynch syndrome and the other 12% are caused by sporadic,
68 screening at-risk and affected persons with Lynch syndrome; and Table 12 lists the guidelines for th
69 lorectal cancer with and without evidence of Lynch syndrome are at equal risk of high-risk adenomas d
72 he mutations reported as potentially causing Lynch syndrome are missense mutations in human mismatch
73 CRC in patients with a putative diagnosis of Lynch syndrome are scarcely defined, and many of them un
75 nt of patients at risk for and affected with Lynch syndrome as follows: Figure 1 provides a colorecta
76 ent 15% of all colorectal cancers, including Lynch syndrome as the most frequent hereditary form of t
77 l tumour bank we determine the prevalence of Lynch syndrome, associated cancer risks and pathogenicit
80 cluded having a first-degree relative with a Lynch syndrome-associated cancer, endometrial tumor with
86 trospective cohort study of individuals with Lynch syndrome-associated colorectal, endometrial, and/o
87 ion scheme to constitutional variants in the Lynch syndrome-associated genes MLH1, MSH2, MSH6 and PMS
88 can improve the likelihood of identifying a Lynch syndrome-associated germline mutation in MLH1, MSH
90 amplification for 99 probands diagnosed with Lynch syndrome-associated tumors showing isolated loss o
92 lies with LLS is lower that of families with Lynch syndrome but higher than that of families with spo
93 PMS2 mutations contribute significantly to Lynch syndrome, but the penetrance for monoallelic mutat
94 rates a strategy for universal screening for Lynch syndrome by tumor testing of patients diagnosed wi
95 r PMS2) develop a rare but severe variant of Lynch syndrome called constitutional MMR deficiency (CMM
96 Amsterdam-positive (MSS HNPCC) (N = 22); (2) Lynch syndrome cancers (identified mismatch repair mutat
100 the analysis of 71 CRC cases suspected to be Lynch syndrome cases for MSH2, MLH1, MSH6, and PMS2 gene
101 g that sporadic cases can be admixed in with Lynch syndrome cases, even those meeting the strongest c
104 reater sensitivity for the identification of Lynch syndrome compared with multiple alternative strate
107 tumor testing to identify families with the Lynch syndrome could yield substantial benefits at accep
108 r of methylated markers (8.4), surprisingly, Lynch syndrome CRCs also demonstrated frequent methylati
111 ting for mismatch repair (MMR) deficiency in Lynch syndrome establishing a new paradigm, combinatoria
112 well-defined inherited syndromes, including Lynch syndrome, familial adenomatous polyposis, MUTYH-as
114 utations in MSH2 have been reported in a few Lynch syndrome families that lacked germline mutations i
116 Evaluation with an NGS panel that included Lynch syndrome genes and other genes associated with hig
117 ghly penetrant CRCP syndromes in addition to Lynch syndrome genes as a first-line test is likely to p
119 al option for patients with colon cancer and Lynch syndrome, goals of treatment are to maximize life
122 asia; however, the effects of aspirin in the Lynch syndrome (hereditary nonpolyposis colon cancer) ar
124 s is often used as a screening criterion for Lynch syndrome (hereditary nonpolyposis colorectal cance
127 SH6, and PMS2 lead to the development of the Lynch syndrome (hereditary nonpolyposis colorectal cance
128 h hereditary nonpolyposis colorectal cancer (Lynch syndrome, HNPCC) and a significant proportion of s
129 he DNA mismatch repair (MMR) gene MSH2 cause Lynch syndromes I and II and sporadic colorectal cancers
130 ients with colorectal adenocarcinoma for the Lynch syndrome identified mutations in patients and thei
131 Identifying families at high risk for the Lynch syndrome (ie, hereditary nonpolyposis colorectal c
132 nt of the neoplasms arising in patients with Lynch syndrome III, mice deficient in MSH6 die premature
135 hniques are available to identify hereditary Lynch syndrome in people with newly diagnosed colorectal
136 t fulfill the Amsterdam I or II criteria for Lynch syndrome in the Utah population and investigate th
139 igh-risk adenomas occurred in 7 of 91 (7.7%) Lynch syndrome individuals and 15 of 197 (7.6%) non-Lync
142 yndrome individuals and 15 of 197 (7.6%) non-Lynch syndrome individuals, adjusted relative risk 1.15
152 ied as mutated in an individual suspected of Lynch syndrome is listed as critical in such a reverse d
159 sis colorectal cancer (HNPCC), also known as Lynch syndrome, is caused by mutations in the mismatch r
162 Purpose Most existing literature describes Lynch syndrome (LS) as a hereditary syndrome leading to
167 ll colorectal cancers (CRCs) be screened for Lynch syndrome (LS) through microsatellite instability (
168 of the common cancer predisposition disorder Lynch syndrome (LS), also known as hereditary nonpolypos
169 s) define the Muir-Torre syndrome variant of Lynch syndrome (LS), which is associated with increased
170 r has been described as a component tumor of Lynch syndrome (LS), with tumors obtained from mutation
176 ctal cancer history) to classify families as Lynch syndrome (microsatellite unstable) or non-Lynch sy
177 luded hereditary non-polyposis colon cancer, Lynch syndrome, microsatellite instability, mismatch rep
178 o compare them with those from patients with Lynch syndrome, MLH1-hypermethylated, or microsatellite-
179 ellent potential for preclinical modeling of Lynch syndrome, MMR-deficient tumors of other tissue typ
181 e panel testing identified 114 probands with Lynch syndrome mutations (9.0%; 95% CI, 7.6%-10.8%) and
183 syndrome or were strongly suspected to have Lynch syndrome on the basis of tissue-based molecular as
184 Defects in human mismatch repair genes cause Lynch syndrome or hereditary non-polyposis colorectal ca
185 rtially explain the MSH2 allele frequency in Lynch syndrome or hereditary nonpolyposis colorectal can
186 families that fulfill Amsterdam criteria for Lynch syndrome or hereditary nonpolyposis colorectal can
187 women with LUS tumors were confirmed to have Lynch syndrome or were strongly suspected to have Lynch
188 elatives with a mutation associated with the Lynch syndrome, particularly women, whose life expectanc
197 al or endometrial cancer who participated in Lynch syndrome screening studies in Ohio and were found
198 treatment of colon cancer in a patient with Lynch syndrome: segmental colectomy (SEG) and total abdo
199 the basis of our results, the possibility of Lynch syndrome should be considered in women with LUS tu
201 LLS than in families with confirmed cases of Lynch syndrome (SIR for Lynch syndrome, 6.04; 95% confid
202 methylation occurs in MSH2 mutation-positive Lynch syndrome subjects or sporadic colorectal cancers (
203 and at-risk family members of pedigrees with Lynch syndrome; Table 10 provides guidelines for screeni
204 rehensive Cancer Network (NCCN) criteria for Lynch syndrome testing (88%; 95% confidence interval [CI
205 RCA2; 93% of these met the NCCN criteria for Lynch syndrome testing and 33% met NCCN criteria for BRC
206 cope of such mutations, and routine clinical Lynch syndrome testing often does not include analysis f
208 ry nonpolyposis colorectal cancer (HNPCC) or Lynch syndrome, the hamartomatous polyposis syndromes, a
209 spirin and a resistant starch in carriers of Lynch syndrome, the major form of hereditary colorectal
213 related markers were significantly higher in Lynch syndrome tumors with MSH2 methylation than MSH2-un
214 n 24% (11 of 46) of MSH2-deficient (presumed Lynch syndrome) tumors, whereas no evidence for MSH2 met
215 imited data regarding how well patients with Lynch syndrome understand the clinical implications of g
216 Studying all endometrial cancer patients for Lynch syndrome using a combination of MSI and immunohist
217 ssification of VUSs in genes associated with Lynch syndrome using data collected through both syndrom
218 uspected of the common cancer predisposition Lynch syndrome, variants of unclear significance (VUS),
219 a prospective analysis of 386 subjects with Lynch syndrome, we calculated hazard ratios for the asso
220 ive studies of the efficacy of screening for Lynch syndrome, we identified patients with colorectal a
221 om probands referred for genetic testing for Lynch syndrome were analyzed for the presence of large g
223 A total of 1063 individuals with proven Lynch syndrome were included, 495 male and 568 female (m
224 rs previously reported to be associated with Lynch syndrome were observed, several previously unrepor
225 In the CAPP2 randomised trial, carriers of Lynch syndrome were randomly assigned in a two-by-two fa
227 ariate analysis of variables associated with Lynch syndrome) were compared with tumor MMR testing of
229 y prompts further investigations to diagnose Lynch syndrome, whereas its absence excludes Lynch syndr
230 ontext of the autosomal dominantly inherited Lynch syndrome, which is due to mutations in mismatch re
232 or women with a mutation associated with the Lynch syndrome who begin regular screening and have risk
237 tumors with MMR defects during screening for Lynch syndrome, yet have no identifiable germline mutati
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