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1 white-light endoscopy and preferably optical chromoendoscopy.
2  'smarter' mucosal biopsy when combined with chromoendoscopy.
3  methods include magnification endoscopy and chromoendoscopy.
4 of preneoplastic lesions with methylene blue chromoendoscopy.
5 ite light endoscopy, narrow band imaging and chromoendoscopy.
6 ocedure and withdrawal times with pancolonic chromoendoscopy (30.7 +/- 12.8 minutes and 18.3 +/- 7.6
7 nce in adenoma detection rates by pancolonic chromoendoscopy (34.4%; 95% CI 26.4%-43.3%) vs white-lig
8 croscopy (90.2 and 98.5%), and magnification chromoendoscopy (88.6 and 93.2%), respectively.
9 nition endoscopy in combination with digital chromoendoscopy allowed real-time in vivo prediction of
10                                      Virtual chromoendoscopy, although not beneficial for polyp detec
11 ia are constantly being evaluated, including chromoendoscopy and biomarkers of carcinoma, in an attem
12 using high-definition endoscopy with digital chromoendoscopy and the accuracy of predicting histology
13 arrow-band imaging without magnification and chromoendoscopy, as required.
14 BE) using dye-based chromoendoscopy, optical chromoendoscopy, autofluorescence imaging, or confocal l
15 ithin this study we assessed whether digital chromoendoscopy can accurately predict the histology of
16                              The addition of chromoendoscopy can aid in identification and removal of
17                                      Optical chromoendoscopy can also be used to evaluate lesions bef
18 of high-definition white light endoscopy and chromoendoscopy compared with white light endoscopy alon
19                          However, pancolonic chromoendoscopy detected serrated lesions in a significa
20                                              Chromoendoscopy facilitated the identification of colon
21  endoscopy [i-scan], and Fujinon intelligent chromoendoscopy [FICE]), confocal laser endomicroscopy (
22 nsitivity and specificity of pCLE to virtual chromoendoscopy for classification of colorectal polyps
23 light endoscopy is noninferior to pancolonic chromoendoscopy for detection of adenomas in patients wi
24              The overall accuracy of digital chromoendoscopy for prediction of adenomatous polyp hist
25                                   Electronic chromoendoscopy has been largely ineffective at improvin
26 e for ACF detection using high-magnification chromoendoscopy has demonstrated considerable variabilit
27 y, cap-fitted colonoscopy, and dye-based pan-chromoendoscopy have each shown to increase polyp detect
28            Image enhancement methods such as chromoendoscopy have greatly improved neoplasia detectio
29                                              Chromoendoscopy holds promise for facilitating the endos
30 ds (narrow band imaging, Fujinon Intelligent ChromoEndoscopy, i-scan, and autofluorescence) have been
31 ight endoscopy is not inferior to pancolonic chromoendoscopy if performed by experienced and dedicate
32                                              Chromoendoscopy increases detection of diminutive adenom
33         Topically applied methylene blue dye chromoendoscopy is effective in improving detection of c
34                         Dye-based pancolonic chromoendoscopy is recommended for colorectal cancer sur
35                Surveillance colonoscopy with chromoendoscopy is recommended, but conventional forward
36 de enhancements in diagnostic optics such as chromoendoscopy, magnification endoscopy, and confocal l
37   Newer technology and techniques, including chromoendoscopy, magnification endoscopy, optical cohere
38                                   Electronic chromoendoscopy methods (narrow band imaging, Fujinon In
39 hite-light endoscopy (n = 128) or pancolonic chromoendoscopy (n = 128) evaluations by 24 colonoscopis
40                                              Chromoendoscopy, narrow band imaging, and autofluorescen
41 ith Barrett's esophagus (BE) using dye-based chromoendoscopy, optical chromoendoscopy, autofluorescen
42                              High-resolution chromoendoscopy provides morphological detail of diminut
43 everity and Paddington International virtual ChromoendoScopy ScOre, respectively.
44   More convenient methods, such as "digital" chromoendoscopy, show promise but have had mixed results
45                                      Virtual chromoendoscopy systems, such as Fujinon intelligent col
46 rrounding mucosa, and preliminary support of chromoendoscopy to target dysplasia better during colono
47 nsitivity and specificity of pCLE to virtual chromoendoscopy using a modified gold standard that assu
48 ccuracy of predicting histology with digital chromoendoscopy was assessed.
49                          Using magnification chromoendoscopy, we collected large ACF with endoscopic
50          Surveillance intervals with digital chromoendoscopy were correctly predicted with >90 % accu
51 E had higher sensitivity compared to virtual chromoendoscopy when considering histopathology as gold
52 ence in specificity between pCLE and virtual chromoendoscopy when considering histopathology or modif
53 ng (NBI) with magnifying endoscopy (ME), and chromoendoscopy with 1.5% Lugol's solution, before defin
54 er, these methods and several other methods (chromoendoscopy with magnification, confocal laser micro
55                                              Chromoendoscopy with methylene blue has been proposed to
56 o DNA is increased in Barrett's mucosa after chromoendoscopy with methylene blue, an effect apparentl