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1 to a significant reduction in the number of colorectal polyps.
2 onventional colonoscopy for the detection of colorectal polyps.
3 h AAPC, those with small or large numbers of colorectal polyps.
4 eds to thousands of precancerous adenomatous colorectal polyps.
5 urden in AAPC patients that develop very few colorectal polyps.
6 s not necessary to generate 3D PVR images of colorectal polyps.
7 sitive association between iron exposure and colorectal polyps.
8 lity of CTC to detect clinically significant colorectal polyps.
9 d these factors in relation to occurrence of colorectal polyps.
10 y provides the greatest rate of detection of colorectal polyps.
11 h indigo carmine dye to diagnosis diminutive colorectal polyps.
12 ferentiation between benign and premalignant colorectal polyps.
13 egression was utilized to find predictors of colorectal polyps.
14 ard for the resection of large, nonmalignant colorectal polyps.
15 idered for the endoscopic resection of large colorectal polyps.
16 to CEMR for large (20-40mm) sessile or flat colorectal polyps.
17 OTAI to analyze colorectal cancer and benign colorectal polyps.
18 to analyze narrow-band images of diminutive colorectal polyps.
19 al-time prediction of histologic features of colorectal polyps.
20 d genetic disease, which is characterized by colorectal polyps.
21 llows real-time histologic classification of colorectal polyps.
22 used technique for resection of large distal colorectal polyps.
23 aracterized by the widespread development of colorectal polyps.
24 ted with the redundant removal of diminutive colorectal polyps.
25 ice has been associated with a lower risk of colorectal polyps.
26 iation between stress and the development of colorectal polyps.
27 e was no extended effect on cancer deaths or colorectal polyps.
28 IQR 52-61]; 106 [37%] women), with 306 small colorectal polyps.
29 s than has previously been observed in whole colorectal polyps.
30 fication system that can be used to diagnose colorectal polyps.
31 ith similar specificity in classification of colorectal polyps.
32 ective study of 451 consecutively identified colorectal polyps.
33 smoking may substantially reduce the risk of colorectal polyps.
34 ged 40-80 y who had undergone removal of all colorectal polyps.
35 mographic (CT) colonography for detection of colorectal polyps.
36 atic review and meta-analysis, we found that colorectal polyps 1 to 20 mm are frequently incompletely
38 oscopic mucosal resection of nonpedunculated colorectal polyps 20 mm or larger (n = 928) were randoml
40 iates, having a first degree relative with a colorectal polyp (8.4% (5742/68 060) in cases and 5.7% (
41 we evaluated differences in risk factors for colorectal polyps according to histological type, anatom
42 y predict the histology of distal diminutive colorectal polyps according to the ASGE PIVI statement.
43 paraffin-embedded pathological specimens of colorectal polyps, adenocarcinomas, and adjacent normal
46 onsidering the high prevalence of neoplastic colorectal polyps among the first-degree relatives of pa
47 APC in which affected patients exhibit fewer colorectal polyps and a later age of onset of colorectal
48 ically localise to neoplastic cells in human colorectal polyps and adenocarcinomas, and virus infecti
50 have been associated with a reduced risk of colorectal polyps and cancer in observational and random
51 ry, we observe significant associations with colorectal polyps and cancer, with more severely impaire
53 es in DNMT1 mRNA expression were detected in colorectal polyps and cancers relative to normal colonic
54 consisting of 3-year surveillance for small colorectal polyps and colonoscopy referral for large pol
57 we determined the status of these markers in colorectal polyps and evaluated associated risk factors.
59 he association of meat intake in relation to colorectal polyps and further investigated the associati
60 diagnostic performance of CTC for detecting colorectal polyps and masses is well established, but it
63 vides insights into malignant progression of colorectal polyps and their microenvironment, serving as
64 observed in pathologists' classification of colorectal polyps, and improved assessment by pathologis
65 ntake is associated with an elevated risk of colorectal polyps, and this association may be synergist
67 d using updated natural history evidence for colorectal polyps applied to a hypothetical 10 000-perso
73 , the siblings and children of patients with colorectal polyps are still at higher risk of CRC, parti
74 trolled study, patients with sessile or flat colorectal polyps between 20 and 40 mm in size were rand
75 e light colonoscopy is widely used to detect colorectal polyps, but flat and depressed lesions are of
76 ribes the histopathology and distribution of colorectal polyps by age and gender in the post-screenin
78 r Gastrointestinal Endoscopy: for diminutive colorectal polyps characterized with high confidence, a
79 the accuracy of pathologic interpretation of colorectal polyps compared with microscopic assessment.
80 lorectal adenomas in a case-control study of colorectal polyps conducted in Minnesota (1991-1994).
81 d imaging atlas of the two most common human colorectal polyps, conventional adenomas and serrated po
83 liably determine the histology of diminutive colorectal polyps could greatly reduce the cost of colon
84 NGS: A review of recent literature regarding colorectal polyps demonstrates an estimated detected pre
85 d differentiation of benign and premalignant colorectal polyps detected with CT colonography in an av
86 , unblinded pilot study, CTC is feasible for colorectal polyp detection > or = 0.5 cm in diameter.
87 tudies will investigate EMI-137 for improved colorectal polyp detection during screening colonoscopie
90 per day was associated with decreased OR of colorectal polyp development (OR = 0.43, CI: 0.19-0.98,
91 Cyclooxygenase-2 inhibitors may also reduce colorectal polyp development or recurrence as well as re
93 Standard-of-care (SoC) imaging for assessing colorectal polyps during colonoscopy, based on white-lig
96 surgical settings for the resection of large colorectal polyps (Endocut vs forced coagulation), we fo
97 ification is important for the prevention of colorectal polyps, especially advanced and multiple aden
98 Purpose To assess the natural history of colorectal polyps followed with CTC in a clinical screen
100 trial involving 19 centers, nonpedunculated colorectal polyps >=20 mm were randomly assigned to cold
102 e levels to the endoscopic interpretation of colorectal polyp histology allows sufficient accuracy fo
103 ation system for the endoscopic diagnosis of colorectal polyp histology and established its predictiv
104 lowed real-time in vivo prediction of distal colorectal polyp histology and is accurate enough to lea
105 sts made real-time predictions of diminutive colorectal polyp histology and surveillance interval pre
110 nterology fellows) using 118 high-definition colorectal polyp images of known histology; and (4) vali
111 oup of remaining invitees not diagnosed with colorectal polyps in 10 years preceding the invitation.
112 itted using a training set consisting of 107 colorectal polyps in 63 patients (mean age, 63 years 8 [
113 and cigarette smoking in relation to risk of colorectal polyps in a Nashville, Tennessee, colonoscopy
116 CTC was used to longitudinally monitor small colorectal polyps in asymptomatic adult patients from Ap
117 med to measure the prevalence of significant colorectal polyps in average-risk individuals and to det
120 hibitor, significantly reduced the number of colorectal polyps in children with familial adenomatous
121 , a selective cyclooxygenase-2 inhibitor, on colorectal polyps in patients with familial adenomatous
122 ology and is accurate enough to leave distal colorectal polyps in place without resection or to resec
124 Accurate optical diagnosis of small (<10 mm) colorectal polyps in vivo, without formal histopathology
125 study of the association between subsets of colorectal polyps, including adenomas and serrated polyp
130 for treating large ( 20 mm) nonpedunculated colorectal polyps (LNPCPs) has shown efficacy in a rando
132 were compared with 2,751 controls without a colorectal polyp, matched on age and follow-up time.
133 s of shared and type-specific etiologies for colorectal polyps may provide insights into colorectal c
134 el genotype, was not associated with reduced colorectal polyp number (incidence rate ratio [IRR]: 0.9
135 ed EPA users with a significant reduction in colorectal polyp number (IRR: 0.50 [0.28, 0.90]), unlike
136 However, because striking variations in colorectal polyp numbers occur among patients carrying i
137 are being applied for the treatment of large colorectal polyps, obviating the need for surgery in mos
138 s secondary analysis of a prospective trial, colorectal polyps of all size categories and morphologie
140 KGROUND & AIMS: Accurate optical analysis of colorectal polyps (optical biopsy) could prevent unneces
141 ated with high red meat intake was found for colorectal polyps or adenomas in subjects with a high HC
142 ts referred for EMR of large sessile or flat colorectal polyps or laterally spreading lesions (>/=20
143 who underwent EMR for large sessile or flat colorectal polyps or laterally spreading lesions, we ass
144 s had 3.29-fold increased odds of developing colorectal polyps (OR = 3.29, 95% CI: 1.13-9.56, P = 0.0
146 28.0 percent reduction in the mean number of colorectal polyps (P=0.003 for the comparison with place
148 allele identified individuals, who displayed colorectal polyp prevention by EPA with a similar effect
149 ith recently diagnosed adenomas and no known colorectal polyps remaining after complete colonoscopy.
150 rn in 14 (82%) of 17 and seven (78%) of nine colorectal polyps, respectively, and 12 (80%) of 15 and
151 that the FADS insertion (I) allele predicts colorectal polyp risk reduction in a secondary analysis
154 ch case and control, we identified the first colorectal polyp(s) that underwent a biopsy or were exci
155 y hospital in New Hampshire, 100 slides with colorectal polyp samples were read by 15 pathologists us
160 re 2.73 times more susceptible to developing colorectal polyps than non-smokers (OR = 2.73, 95% CI: 1
161 5-49 years exhibited a greater likelihood of colorectal polyps than younger counterparts (34.2% vs. 2
162 provides morphological detail of diminutive colorectal polyps that correlates well with polyp histol
163 Artificial intelligence (AI) may detect colorectal polyps that have been missed due to perceptua
166 nostic bias over time in their evaluation of colorectal polyps to assess how this may impact the util
167 epidemiology and clinical characteristics of colorectal polyps to formulate an appropriate screening
168 rst systematic comparison of risk factors by colorectal polyp type in a large colonoscopy-based case-
170 irtual chromoendoscopy for classification of colorectal polyps using histopathology as a gold standar
172 4 years with and without a family history of colorectal polyp was, respectively, 94.3 and 67.9 per 10
173 Real time histology of 121 diminutive distal colorectal polyps was evaluated using high-definition en
176 orrelated with a lesser or greater number of colorectal polyps were detectable within approximately t
177 s referred for endoscopic treatment of large colorectal polyps were enrolled in this pilot clinical s
178 significant differences in the detection of colorectal polyps were found between the three technique
182 We aimed to test whether the association of colorectal polyps with intake of calcium, magnesium, or
183 n has gained great acceptance to manage flat colorectal polyps with the two major complications being
185 al dominant inheritance of multiple types of colorectal polyp, with colorectal carcinoma occurring in
186 high confidence for 75% of consecutive small colorectal polyps, with 89% accuracy, 98% sensitivity, a
187 -neoAg landscape of microsatellite loci from colorectal polyps without malignant potential (PWOMP), p