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1 ptoms was obtained through bivariate ordered logistic regression.
2 statistics and multivariate random intercept logistic regression.
3 Frequencies were compared using logistic regression.
4 ile and RHOA was modeled using multivariable logistic regression.
5 al HIV transmission for each biomarker using logistic regression.
6 with second opinion use were evaluated using logistic regression.
7 experiences were studied using multivariate logistic regression.
8 ression and multilevel mixed-effects ordinal logistic regression.
9 zed cutoff points was estimated with ordinal logistic regression.
10 isk types, and any HPV were calculated using logistic regression.
11 struction within asthmatics via multivariate logistic regression.
12 tor common data elements were explored using logistic regression.
13 modality were identified using multivariable logistic regression.
14 n with and without CHD by using multivariate logistic regression.
15 ith the chi(2) test, the Student t test, and logistic regression.
16 ed care-were assessed by using multivariable logistic regression.
17 e identified using multivariable conditional logistic regression.
18 ignancy were evaluated by using multivariate logistic regression.
19 residual cancer cells) were evaluated using logistic regression.
20 score </=2 was estimated using multivariable logistic regression.
21 outcome was investigated with multivariable logistic regression.
22 dentified trajectory classes was assessed by logistic regression.
23 ) using Cox proportional hazard analyses and logistic regression.
24 ) concentrations at place of residence using logistic regression.
25 ormance of fitted models, was estimated from logistic regression.
26 shrinkage and selection operator regularized logistic regression.
27 mperature were estimated using multivariable logistic regression.
28 ide polymorphisms, and myopia estimated from logistic regression.
29 s ratios were calculated using multivariable logistic regression.
30 e categories were examined using multinomial logistic regression.
31 ce/escape were identified using multivariate logistic regression.
32 unvaccinated participants via multivariable logistic regression.
33 ing interventions to SOC using multivariable logistic regression.
34 and multivariate analysis was performed with logistic regression.
35 ith other potential predictors in a stepwise logistic regression.
36 14 days of LVAD were assessed with stepwise logistic regression.
37 tors for erosive tooth wear were assessed by logistic regression.
38 endently associated with PNF on multivariate logistic regression.
39 odds of cancer of two consecutive scores by logistic regression.
40 ma or death or until December 31, 2010, with logistic regression.
41 eographically matched controls by univariate logistic regression.
42 rgic disease were estimated with multinomial logistic regressions.
46 matched odds ratios (mORs) using conditional logistic regression adjusted for maternal age and educat
48 athway abundances and risk using conditional logistic regression adjusting for BMI, smoking, and alco
49 h uptake in the non-incentivised group using logistic regression, adjusting for community and number
51 were then tested with the use of multinomial logistic regression.An ED, HF, and LFD dietary pattern h
62 (univariate and bivariate) and multivariable logistic regression analyses to longitudinal health insu
66 tion and regression tree (CART) analysis and logistic regression analyses were performed to identify
70 e compared between groups using multivariate logistic regression analyses, adjusting for maternal age
72 I, -0.29 to 0.14; P = .49) nor by univariate logistic regression analysis (odds ratio, 0.64; 95% CI,
73 95% CI, 0.22-1.67; P = .37) or multivariate logistic regression analysis (odds ratio, 1.09; 95% CI,
74 ic and non-atopic children were estimated by logistic regression analysis adjusting for potential con
78 analysis for clinical outcome parameter and logistic regression analysis for postsurgical complicati
81 n in any of the LS genes by using polytomous logistic regression analysis of clinical and germline da
88 values of less than 0.1 were considered for logistic regression analysis to identify predictors of m
96 urgery: risk factors at baseline (univariate logistic regression analysis) included longer total dura
106 r unbalanced covariates, we used conditional logistic regression and a repeated measures model to com
108 rimination was similar for the multivariable logistic regression and CHAID tree models, with both bei
109 nd 95% confidence intervals for asthma using logistic regression and correcting for the known samplin
113 were examined using multilevel mixed-effects logistic regression and multilevel mixed-effects ordinal
114 to predict MDD, using area under the curve, logistic regression, and linear mixed model analyses, wa
121 ntion-to-treat analysis, using multivariable logistic regression controlling for potential confounder
126 ical analysis was performed with conditional logistic regression for binary outcomes and the stratifi
127 eviously developed a network-based penalized logistic regression for correlated methylation data, but
131 ctors on >/=2-step DRSS score improvement by logistic regression in an integrated VISTA and VIVID dat
132 ty selection algorithm with a L1-regularized logistic regression kernel and were then fitted with log
138 alysis was used to identify covariates for a logistic regression model predictive of severe ADAMTS13
140 cific transcripts, we used a cross-validated logistic regression model to identify the presence of HC
148 ected mortality was obtained from multilevel logistic regression model, adjusting for demographics, m
156 test, the t test, the Mann-Whitney test, and logistic regression modeling of sample adequacy were per
157 a pooled dataset and then used mixed-effects logistic regression modeling to determine the effect of
160 stical methods using 2 independently derived logistic regression models (a de novo model and an a pri
161 nt amelanotic melanomas were evaluated using logistic regression models adjusted for age, sex, study
162 For each outcome, we estimated conditional logistic regression models adjusting for race/ethnicity,
165 e extracted and analyzed to fit multivariate logistic regression models and build a risk calculator.
168 periodontal severity with linear and ordinal logistic regression models before and after adjusting fo
169 f the radiosensitive variable improved lasso logistic regression models compared to model performance
172 nd postguideline periods in the hierarchical logistic regression models for all of the risk groups.
177 ommonly used risk metrics have been based on logistic regression models that incorporate aspects of t
179 regression kernel and were then fitted with logistic regression models to classify steatosis, that w
180 measures were tested by using multivariable logistic regression models to determine which combinatio
192 ts were pooled in case-control analyses, and logistic regression models were used to compute risks.
193 w-up for >/=3 months, and population average logistic regression models were used to determine risk f
199 tify potentially confounding covariates, and logistic regression models were used to estimate the ris
202 rvals (CI) were calculated using conditional logistic regression models with adjustment for important
203 ces in percent effect changes in conditional logistic regression models with and without additional a
206 were tested using multivariable hierarchical logistic regression models, adjusting for important prog
207 We used Cox proportional hazard models, logistic regression models, and Fine-Gray competing risk
212 outcome measures at 35 years (wave 10) using logistic regression models, with progressive adjustment:
218 to automatically construct knowledge graphs: logistic regression, naive Bayes classifier and a Bayesi
227 g mixed effects repeated measures models and logistic regression, revealed two independent histologic
230 ls (CIs) were estimated by using conditional logistic regression stratified according to age and race
233 ORs were calculated with the use of Cox and logistic regressions.The mean +/- SD plasma 25(OH)D conc
238 adjusted odds ratios with exact conditional logistic regression to determine the association between
245 from 3 prospective cohorts using conditional logistic regression to evaluate pre-diagnosis levels of
249 c information and infection status, and used logistic regression to relate those covariates to lamb s
251 stages under a fixed-effects model and used logistic regression to test for association in each stag
254 tcome typically entails fitting a polytomous logistic regression via maximum likelihood estimation.
258 In-hospital outcomes were recorded, and logistic regression was performed to identify independen
260 s (low, moderate, and high) were created and logistic regression was undertaken to evaluate the optim
265 ime trends were identified and multivariable logistic regression was used to determine sociodemograph
272 n a derivation cohort, and backward stepwise logistic regression was used to identify factors indepen
285 Descriptive statistics and multivariate logistic regressions were conducted to evaluate end-of-l
290 d Rankin Scale score was analyzed by ordinal logistic regression, which yields a common odds ratio (O
291 (ORs) and 95% confidence intervals (CIs) by logistic regression with adjustment for age, gender, and
297 e patients versus controls using conditional logistic regression with results from the 2 settings poo
300 retrospective cohort study using multilevel logistic regression, with MAC use modeled as a function
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