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1 6-6.44; P = .03) but not 1 or more sessions (per-protocol analysis).
2 ccording to dosing guidelines (approximating per-protocol analysis).
3 he time of transesophageal echocardiography (per-protocol analysis).
4 ing versus baseline at 24 months (P = 0.001; per-protocol analysis).
5 nalysis, but this effect was not seen in the per protocol analysis.
6 ere offered follow-ups but excluded from the per protocol analysis.
7 n-to-treat analysis and, for sensitivity, by per protocol analysis.
8 The results were similar in the per-protocol analysis.
9 anges in myocardial T2* after 1 year using a per-protocol analysis.
10 Similar results were obtained in a per-protocol analysis.
11 34 (94%), respectively, were included in the per-protocol analysis.
12 lated events over 96 weeks, analysed using a per-protocol analysis.
13 e intention-to-treat analysis and 296 in the per-protocol analysis.
14 reasing exposure to malaria (P=0.001) in the per-protocol analysis.
15 within 30 days of revascularisation using a per-protocol analysis.
16 inical trial, and who fulfilled criteria for per-protocol analysis.
17 ated with Norwalk virus were included in the per-protocol analysis.
18 titis A virus and 1090 were eligible for the per-protocol analysis.
19 in the cefotetan group) were included in the per-protocol analysis.
20 for thrombotic cardiovascular events in the per-protocol analysis.
21 Results were similar in the per-protocol analysis.
22 Thus, 73 girls were included in the per-protocol analysis.
23 (96.1-99.7) versus 96.9% (94.7-99.1) in the per-protocol analysis.
24 900 were included in the per-protocol analysis.
25 trial and 1226 (98.2%) were included in the per-protocol analysis.
26 tients (IM, 72; IA, 66) were included in the per-protocol analysis.
27 in the initiator analysis and 25 614 in the per-protocol analysis.
28 ed exercise regimen and were included in the per-protocol analysis.
29 aintenance intervention were included in the per-protocol analysis.
30 intention-to-treat analysis, and 562 in the per-protocol analysis.
31 158 enrolled participants, 138 completed the per-protocol analysis.
32 prasugrel monotherapy) were retained in the per-protocol analysis.
33 riority trial, the primary analysis used the per-protocol analysis.
34 Sixty patients were included in the per-protocol analysis.
35 Clone censor weighting was used to emulate a per-protocol analysis.
36 Data were analysed using a per-protocol analysis.
37 88.4% [95% CI 78.4-94.9], p = 0.004) in the per-protocol analysis.
38 -treat analysis were similar to those of the per-protocol analysis.
39 ved both injections and were included in the per-protocol analysis.
40 58% female), 1217 (86%) were analyzed in the per-protocol analysis.
41 roup 3) were included in the titration trial per-protocol analysis.
42 ysis and 83.7% (95% CI, 68.1 to 91.6) in the per-protocol analysis.
43 tching treatment groups were censored in the per-protocol analysis.
44 sis and -0.06 (95% CI, -0.16 to 0.04) in the per-protocol analysis.
45 Results were similar in a per-protocol analysis.
46 : Twenty-four patients were evaluated in the per-protocol analysis.
47 Similar results were found in the per-protocol analysis.
48 alysis and 68.42% (95% CI: 43.5-87.4) in the per-protocol analysis.
49 The same pattern resulted from the per-protocol analysis.
50 e efficacy was 69% (95% CI, 42 to 84) in the per-protocol analysis.
51 of clinical resolution of cellulitis in the per-protocol analysis.
52 treat analysis or among 1755 patients in the per-protocol analysis.
53 sis, except for those who dropped out in the per-protocol analysis.
54 7%), respectively, were eligible for primary per-protocol analysis.
55 s completed the trial and were included in a per-protocol analysis.
56 adherence, 2251 infants were included in the per-protocol analysis.
57 7.0% (95% CI, -14.5 to 24.6; P=0.52) in the per-protocol analysis.
58 an among UC children (+10.8; P = 0.028) in a per-protocol analysis.
59 o-treat and 51.9% and 35.1% (P=0.037) in the per-protocol analysis.
60 (67%) of the 829 babies were included in the per-protocol analysis.
61 to primary chemotherapy were included in the per-protocol analysis.
62 d Cochrane Risk of Bias tool (RoB 2) with a "per protocol" analysis.
63 1.9; P = 0.015), and appendicular LM in the per-protocol analysis (0.21 kg; 95% CI: 0.02, 0.40; P =
64 ence, 1.15; 95% CI, 0.54-1.77; P < .001) and per-protocol analysis (1.03; 95% CI, 0.27-1.79; P = .008
65 e participants of whom 25 were included in a per-protocol analysis (17 to CDC group and eight to stan
67 ys and 203 [44%] girls) were included in the per protocol analysis: 234 (93%) in the previous IPV gro
69 control group were included in the modified per-protocol analysis (2412 [51.9%] male and 2232 [48.1%
72 -1.2%, 95% CI -7.3 to 4.9, p=0.0022) and the per-protocol analysis (-3.6%, -9.0 to 1.7, p=0.0085).
73 ent groups with 90 patients eligible for the per protocol analysis: 30 in the higher dose test arm A;
78 estimates when evaluated at optimal dose in per-protocol analysis (42.1% vs 30.7%; adjusted HR, 1.67
79 5%) by intention-to-treat (P = 0.01) but not per-protocol analysis (46% faculty practice, 34% clinic)
85 is: -43.5%; 95% CI, -100.3 to -2.8 [P=0.03]; per-protocol analysis: -56.8%; 95% CI, -118.7 to -12.3 [
86 significant for the corresponding supportive per protocol analysis (57.7% [15 of 26] v 30.4% [seven o
88 sions from 178 patients were included in the per-protocol analysis (69 with an aFFR <=0.80 and 109 wi
94 roup with either posaconazole group); in the per-protocol analysis, 90% of the patients receiving low
95 up in the complete clinical response rate on per-protocol analysis (91.5% vs 90.8%; P = .88) or inten
99 patients who underwent randomization, in the per-protocol analysis, a favorable outcome was reported
101 al, -2.4 to .2), with DTG/3TC favored in the per-protocol analysis (adjusted treatment difference, -1
102 nce of 0.03 (95% CI -0.05 to 0.10, p = 0.52; per-protocol analysis, adjusted for country, age, and se
106 ntervention group (31 of 150 [20.7%]) in the per-protocol analysis also was not statistically signifi
108 l (PFS) of ABVD alone compared with CMT in a per-protocol analysis among PET-2-negative patients (non
109 ucting complete cases (1,659/1,708, 97%) and per-protocol analysis among women with an observed BEP a
111 he SVR rate was 98.2% (29 090/29 620) in the per-protocol analysis and 78.1% (29 090/37 256) in the i
113 8, 2017; 19 021 (94.6%) were included in the per protocol analysis, and 20 071 (99.9%) in the safety
114 eporting of intention-to-treat analysis with per-protocol analysis, and having conclusions that are c
119 model, and 60.3% (2.3%) and 65.9% (1.9%) by per-protocol analysis at week 52 and the mean of weeks 5
121 133 of the 673 randomised patients from the per-protocol analysis because they had inadequate iron s
123 d supplementation >/= 90 d before pregnancy (per-protocol analysis), birth weight was higher in the t
125 groups with censoring for rescue treatment (per-protocol analysis) but were in favor of active treat
126 antly shorter 3-year overall survival in the per-protocol analysis compared with 3x HD-AraC (63% v 72
130 rt access regardless of use) and a secondary per-protocol analysis (decision support use) were perfor
135 fficacy of 80.7% (95% CI 65.9, 89.0) and the per-protocol analysis estimated 82.7% (71.7, 88.4) effic
136 an intention-to-treat approach; a secondary per-protocol analysis estimated associations after accou
137 luded in the intention-to-treat analysis and per-protocol analysis, except for those who dropped out
140 treatment before a primary outcome event and per-protocol analysis explored patients with a high leve
147 nalysis and 2.39 (95% CI, 1.12-5.10) for the per-protocol analysis; for recommendation of TKR at 6 mo
151 eeks after treatment completion (SVR12) in a per-protocol analysis in order to determine the effect o
155 to-treat analysis included all subjects, and per-protocol analysis included adherent participants (gr
164 ompared with controls, but in the secondary, per-protocol analysis, it was improved when at least 70%
165 ing in 72 patients (36 per study arm) in the per protocol analysis (median recipient age, 60 years [I
166 ion-to-treat analysis and 411 (82.2%) in the per-protocol analysis (median age, 40 years [range, 15-7
168 to 1.26; P = .005 for noninferiority) in the per-protocol analysis, meeting our noninferiority criter
188 ion analysis, supplemented by a prespecified per-protocol analysis of patients who reported frequent
193 period (aOR, 1.8; 95% CI, 1.1-2.9) and in a per-protocol analysis of the skin tested subset (aOR, 5.
195 OR: 0.41; 95% CI: 0.20, 0.84; P = 0.015) and per-protocol analysis (OR: 0.40; 95% CI: 0.20, 0.83; P =
198 w a statistically significant benefit in the per-protocol analysis (P = 0.01; responder rate, 73% DES
199 = 0.09) and a significant -3.8% reduction in per-protocol analysis (P = 0.043).Independent of other l
204 6; RMTL-R: 1.04, 95% CI 0.88-1.22) or in the per-protocol analysis population (RMST-D: -2.9 days, 95%
206 imilar by intention-to-treat analysis but in per-protocol analysis rates of hospitalization and of an
210 by the intention-to-treat principle, with a per-protocol analysis restricted to women managed accord
211 r confounding and informative censoring, the per-protocol analysis results showed no association of a
213 period, both intention-to-treat analysis and per protocol analysis revealed no statistically signific
218 in 99 of 109 (90.8%) in the control group in per-protocol analysis (risk difference, -0.016; 97.5% co
219 R 0.69, 95% BCI 0.53-0.90) and larger in the per-protocol analysis (RR 0.34, 95% BCI, 0.21-0.54).
220 reat analysis (RR 0.73, 95%CI 0.59-0.91) and per-protocol analysis (RR 0.74, 95%CI 0.60-0.93) accordi
221 alysis (RR, 0.81; 95% CI, 0.71-0.94) and the per-protocol analysis (RR, 0.79; 95% CI, 0.68-0.92).
222 n active and sham therapy were observed in a per-protocol analysis set (n = 20) defined as experienci
225 mary efficacy endpoint was analysed with the per-protocol analysis set, whereas the safety analysis i
226 s after the end of all study therapy) in the per-protocol analysis set, which included all participan
234 reat analysis did not reach significance but per-protocol analysis showed significantly reduced overa
245 TC HR = 0.15, 95% CI: 0.04, 0.52); and 3) in per-protocol analysis (TDF HR = 0.18, 95% CI: 0.06, 0.53
248 intention-to-treat basis, with an additional per-protocol analysis that excluded patients randomly as
250 an credible interval, 0.69 to 1.15) and in a per-protocol analysis that included only patients who re
255 idence interval [CI], -17.1 to -4.2); in the per-protocol analysis, the failure rate was 28.0% in the
268 s; however, as findings were not robust in a per-protocol analysis, trade-offs between efficacy and t
270 t baseline and at 6 months and qualified for per-protocol analysis (TRT, n = 21; placebo, n = 19).
282 llow-up; thus, sustained response rates with per-protocol analysis were 81.6%, 81.6%, and 81.6% for p
289 Estimates from complete-case analysis and a per-protocol analysis were similar to the imputed data a
292 lacement at parental request, we conducted a per-protocol analysis, which gave corresponding episode
295 myocardial infarction (MI), or stroke in the per-protocol analysis with a 1.15 margin for the hazard
297 ways: without consideration of crossover and per-protocol analysis with censoring at crossover, if ap
298 or those completing 2 years of intervention, per-protocol analysis yielded a HR of 1.09 (0.55-2.19, p
299 rvention (258 aspirin, 250 aspirin placebo), per-protocol analysis yielded an HR of 0.41 (0.19-0.86,