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1 hat afforded by plasmid profile analysis and ribotyping.
2 typed using high-throughput, fluorescent PCR ribotyping.
3 analysis (MLVA) compared to typing using PCR ribotyping.
4 test using MLVA and in the control using PCR ribotyping.
5 y rate was 90%, yielding 11,294 isolates for ribotyping.
6 ormed by sequencing of the tcdC gene and PCR ribotyping.
7   All C. difficile strains were typed by PCR-ribotyping.
8 iginating from 26 countries were analyzed by ribotyping.
9 consistent with those of both emm typing and ribotyping.
10 staphylococcal (CoNS) isolates identified by ribotyping.
11 g pulsed-field gel electrophoresis (PFGE) or ribotyping.
12 ce typing (using six housekeeping genes) and ribotyping.
13 tergenic consensus (ERIC)-PCR, and automated ribotyping.
14 nal strain, all 90 isolates were analyzed by ribotyping.
15  the results of the Dienes test and those of ribotyping.
16 ates were typed by polymerase chain reaction ribotyping.
17 racterized by serotyping and automated EcoRI ribotyping.
18 pulsed-field gel electrophoresis (PFGE), and ribotyping.
19 olates was further differentiated with PvuII ribotyping.
20 nth period were typed by the Dienes test and ribotyping.
21 ans strains was evaluated by both AP-PCR and ribotyping.
22 que strains as judged by the Dienes test and ribotyping.
23 cible and could be used as an alternative to ribotyping.
24 t to least, plasmid profiling [40 types], PS ribotyping [34 types], and PFGE [23 types]).
25 ds were as follows: PFGE, 99.7%; MEE, 99.4%; ribotyping, 98.8%; MAb serotyping, 75.8%; MAb serotyping
26                   REA, slpAST, MLST, and PCR-ribotyping all included AP-B (toxinotype III, binary tox
27      Strains were also subjected to PFGE and ribotyping analysis.
28 typing, with 85 outbreaks being confirmed by ribotyping and 62 by MLVA.
29 monocytogenes isolates were characterized by ribotyping and allelic analysis of the virulence genes h
30 ates were typed by polymerase chain reaction-ribotyping and analyzed for the presence of toxin genes.
31 m a transtracheal swab was compared by using ribotyping and antibiotic susceptibility analyses.
32                                              Ribotyping and AP-PCR analysis confirmed a previous repo
33 etermined by polymerase chain reaction (PCR) ribotyping and endonuclease subtyping.
34     It was recently reported that both PvuII ribotyping and HinfI/DdeI restriction endonuclease analy
35 rsity within the C. diphtheriae species, and ribotyping and MEE data generally correlated well with e
36 ence in the mean turnaround time between the ribotyping and MLVA typing (13.6 and 5.3 days, respectiv
37 al and geographic diversity, were assayed by ribotyping and multilocus enzyme electrophoresis (MEE).
38      Routine polymerase chain reaction (PCR) ribotyping and multiple-locus variable-number tandem-rep
39             Fingerprinting of genomic DNA by ribotyping and PFGE produced a significant variation in
40 e finding that differences in the results of ribotyping and plasmid analysis change over time suggest
41  was more discriminatory than EcoRI or PvuII ribotyping and provided subtype data with better epidemi
42 stant isolates was investigated by automated ribotyping and pulsed-field gel electrophoresis (PFGE).
43                The isolates were subtyped by ribotyping and pulsed-field gel electrophoresis.
44                                              Ribotyping and RAPD clearly demonstrated the household t
45  PFGE and AFLP were less discriminatory than ribotyping and RAPD.
46 kota isolates were indistinguishable by both ribotyping and RAPD.
47                                              Ribotyping and REA identified numerous, previously unrec
48                             A combination of ribotyping and serotyping showed that two bovine isolate
49 ed patients and characterized them using PCR-ribotyping and virulence factor analysis.
50                               Both PstI/SphI ribotyping and XbaI-PFGE provided a similar degree of st
51 ion was 0.980 for the Dienes test, 0.979 for ribotyping, and 0.992 for PFGE.
52 shable on multilocus enzyme electrophoresis, ribotyping, and DNA macrorestriction analysis.
53 AT probes was less discriminating than MLST, ribotyping, and enterobacterial repetitive intergenic co
54 group B isolates were typeable by PFGE, MEE, ribotyping, and ITS PCR-RFLP.
55  restriction fragment length polymorphism or ribotyping, and multilocus enzyme electrophoresis.
56     Pulsed-field gel electrophoresis (PFGE), ribotyping, and multilocus sequence typing are commonly
57 E), multilocus enzyme electrophoresis (MEE), ribotyping, and PCR-restriction fragment length polymorp
58           The methodologies for RAPD typing, ribotyping, and PFGE typing of C. diphtheriae strains we
59 d gel electrophoresis [PFGE], PstI/SphI [PS] ribotyping, and plasmid profiling).
60 g methods, such as serotyping, phage typing, ribotyping, and pulsed-field gel electrophoresis, can yi
61 olates by multilocus enzyme electrophoresis, ribotyping, and random amplified polymorphic DNA showed
62     Pulsed-field gel electrophoresis (PFGE), ribotyping, and repetitive extragenic palindromic sequen
63 rotyping, pulsed-field restriction analysis, ribotyping, and repetitive-sequence (BOX element) PCR.
64 Restriction endonuclease analysis (REA), PCR ribotyping, and serogrouping differentiated 11, 4, and 3
65 popular C. difficile-typing technique is PCR ribotyping, and we previously developed methods using fl
66 avium and B. hinzii, although the results of ribotyping are more easily interpreted.
67                     Both the Dienes test and ribotyping are useful methods for identifying individual
68 eld gel electrophoresis (PFGE) and automated ribotyping by using HindIII and PvuII.
69 gree of diversity observed by PFGE, MEE, and ribotyping can be explained by the fact that isolates we
70 four other molecular subtyping methods: MEE, ribotyping (ClaI), random amplified polymorphic DNA assa
71 erior discriminatory performance of the PFGE-ribotyping combination was proven in two ways: (i) by de
72                 Our data show that (i) EcoRI ribotyping, combined with hylB and sodA sequencing, prov
73 (intergenic transcribed spacer PCR [ITS-PCR] ribotyping) could distinguish among type strains of the
74 iscrimination [D] = 0.995) than either EcoRI ribotyping (D = 0.950) or AscI or ApaI single-enzyme PFG
75 -style sequencer to generate fluorescent PCR ribotyping data.
76 cost-effective generation of fluorescent PCR ribotyping data.
77 pulsed-field gel electrophoresis (PFGE), PCR ribotyping, detection of a binary toxin gene, and detect
78                                        EcoRI ribotyping differentiated 17 ribotypes, and DNA sequenci
79 e for identifying polymorphism was PstI-SphI ribotyping, distinguishing a total of 22 patterns, 10 of
80 le serotypes, demonstrating the potential of ribotyping for serotype prediction.
81 ntibiotic susceptibility, biochemical tests, ribotyping, genome restriction mapping, and multilocus s
82                                              Ribotyping identified 18 different strains among the 39
83 fficile typing platform that is based on PCR-ribotyping in conjunction with a semiautomated molecular
84                  Whole-genome sequencing and ribotyping indicated that the NAPCR1 variant belongs to
85                                              Ribotyping is a molecular method for the characterizatio
86                    The results revealed that ribotyping is highly discriminatory and reproducible and
87 o were examined by biotyping, PvuII and SmaI ribotyping, IS200 fingerprinting, and pulsed-field gel e
88 ction fragment length polymorphism analysis, ribotyping, IS200 typing, and PCR amplification of the f
89 th three well-established molecular methods (ribotyping, macrorestriction analysis of genomic DNA, an
90 ferences among isolates, and unlike PFGE and ribotyping, microarrays can be used to identify specific
91 ollowing order: MLVA, REA, PFGE, slpAST, PCR-ribotyping, MLST, and AFLP.
92             Four molecular subtyping methods-ribotyping, multilocus enzyme electrophoresis (MEE), ran
93                    The Clostridium difficile Ribotyping Network (CDRN) was established in 2007 as par
94                                              Ribotyping of IgA-coated cecal microbiota showed Proteob
95 of discrimination among isolates than either ribotyping or PFGE, although strain clustering was simil
96 accharomyces were shown to share the ITS-PCR ribotyping patterns of both parental species.
97                                              Ribotyping patterns using the restriction enzymes MaeI a
98                                    By use of ribotyping, plasmid content, and antibiotic susceptibili
99                  Typing was performed by PCR-ribotyping, pulsed-field gel electrophoresis (PFGE), and
100 comparison of four molecular typing methods (ribotyping, pulsed-field gel electrophoresis [PFGE], ran
101 unction with other molecular techniques (16S ribotyping, pulsed-field gel electrophoresis, and detect
102                                          PCR-ribotyping, REA, and PFGE provide different but overlapp
103 sity [D] = 0.98 and 0.94 for PFGE typing and ribotyping, respectively).
104 protein A gene sequence typing (slpAST), PCR-ribotyping, restriction endonuclease analysis (REA), mul
105 ethods, including phage typing (PT) (n = 7), ribotyping (RT) (n = 13), and pulsed-field gel electroph
106 ined by multilocus sequence analysis and PCR ribotyping; sequence type 37 (ST37)/ribotype 017 (RT017)
107                  The correlation between PCR-ribotyping, sequencing, and Xpert PCR for detection of N
108 presented herein, the combination of REA and ribotyping should provide valuable information in unders
109                               PFGE, MEE, and ribotyping showed greater discriminatory abilities than
110 ntly provided more discriminatory power than ribotyping, there were examples where the use of ribotyp
111 and seven cat isolates were characterized by ribotyping to determine whether the ribotypes of the cat
112 the restriction endonuclease XbaI, while for ribotyping, two restriction endonucleases (PstI and SphI
113 c DNA, plasmid profiling, protein profiling, ribotyping using 5S, 16S, and 23S rDNA probes, and polym
114                       Access to C. difficile ribotyping was associated with significant changes in th
115                                              Ribotyping was less sensitive than PFGE when applied to
116 typing, there were examples where the use of ribotyping was more discriminatory than REA.
117                                              Ribotyping was performed using the fully automated RiboP
118                                              Ribotyping was used to identify cultures and indicated d
119                          Capillary-based PCR ribotyping was used to quantify the presence/absence and
120 r biotype differentiation; however, PFGE and ribotyping were better (and equal to each other) at disc
121  indistinguishable by the Dienes test and/or ribotyping were characterized further by pulsed-field ge
122  pulsed-field gel electrophoresis (PFGE) and ribotyping, were used to characterize 207 Escherichia co
123                                          PCR ribotyping, whole-genome sequencing, and phenotypic assa
124                                    Automated ribotyping with HindIII is an accurate method for geneti
125 criminatory ability of MLVA was greater than ribotyping, with 85 outbreaks being confirmed by ribotyp

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