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1 asured compared with predicted RMR (from own regression model).
2 was analyzed using a multivariable logistic regression model.
3 identify relevant parameters for a logistic regression model.
4 rintSO2 remained significant in the multiple regression model.
5 on techniques were combined using the hybrid regression model.
6 d case fatality rates through a time-varying regression model.
7 of asthma or exacerbation after LAIV using a regression model.
8 the occurrence of BSTD using a multivariate regression model.
9 ost per bed day was projected using a linear regression model.
10 .22) using a generalized estimating equation regression model.
11 e were obtained using multivariable logistic regression model.
12 tients was examined using a modified Poisson regression model.
13 surgical revascularization using a logistic regression model.
14 alysis was carried out using multiple linear regression models.
15 assessed using multivariable competing risk regression models.
16 estimation equations and multilevel logistic regression models.
17 using multivariable Cox proportional hazards regression models.
18 imated using integrated empirical geographic regression models.
19 -effects models and Cox proportional hazards regression models.
20 on and symptomatic infection we use logistic regression models.
21 were calculated using multivariate logistic regression models.
22 with baseline characteristics of loci using regression models.
23 uring pregnancy and childhood using land-use regression models.
24 s with each dietary score (WD, PD) in linear regression models.
25 ors with incident PD using adjusted logistic regression models.
26 evaluated using univariate and multivariate regression models.
27 he BGI was tested with Cox and mixed-effects regression models.
28 were estimated using multivariable logistic regression models.
29 actors were identified and validated via Cox regression models.
30 1 were compared between groups via logistic regression models.
31 ividual outcomes were examined using Poisson regression models.
32 ariatric surgery episode using multivariable regression models.
33 dized mortality/morbidity ratio weighted cox-regression models.
34 -to-severe diarrhoea in conditional logistic regression models.
35 d risk factors for DSA development using Cox regression models.
36 linical keratoconus based in binary logistic regression models.
37 rticipant was estimated by means of land-use regression models.
38 ariable Poisson, Fine-Gray, and log-binomial regression models.
39 ), and others were estimated through Poisson regression models.
40 ng study intake variation explained by these regression models.
41 Communities study using multivariable linear regression models.
42 he two study periods were assessed using Cox regression models.
43 s were compared using multivariable logistic regression models.
44 spital mortality was analyzed using logistic regression models.
45 ment analysis using Cox proportional hazards regression modeling.
47 94.2%, 96.9%, 97%, and 94% for the logistic regression model; 92.7%, 100%, 100%, and 92.9% for the I
49 ted using multivariable conditional logistic regression models, according to center, sex, age, and pe
52 from 146 IOP-associated variants in a linear regression model adjusted for central corneal thickness
53 es were compared between groups using linear regression models adjusted for age and sex with family m
56 were assessed using Cox proportional-hazard regression models adjusted for age, sex, education, card
57 ameters for urban air pollution using linear regression models adjusted for age, sex, smoke, time liv
58 ardiovascular risk were determined using Cox regression models adjusted for cardiovascular risk facto
59 d PROs were investigated using mixed-effects regression models adjusted for clinically-relevant confo
60 level analysis with Cox proportional hazards regression models adjusted for clustering by facility an
61 the Swiss HIV Cohort Study.We performed Cox regression models adjusted for demographic factors, base
63 REE were identified, and prespecified linear regression models adjusted for nusinersen treatment (dis
64 5,276) and 15 (n = 3,446) years using linear regression models adjusted for potential confounders.
65 statin C) and ACR with cancer risk using Cox regression models adjusted for potential confounders.
67 ed to sleep characteristics were assessed in regression models adjusted for sociodemographic and card
69 tbreak over the same period, using a Poisson regression model adjusting for correlation within hospit
70 ) over time was assessed with a linear mixed regression model adjusting for the effects of baseline M
73 was estimated using a multivariable logistic regression model, adjusting for age, sex, indigenous sta
82 erate-severe or severe food insecurity using regression models and algorithmic weighting procedures.
83 We used interrupted time series logistic regression models and estimated marginal effects to exam
84 series of multilevel multivariable logistic regression models and geospatially visualising unexplain
85 ctomy type (partial/radical)-to fit logistic regression models and grouped patients according to degr
88 2) and persistence from 12 to 24 months into regression models and tested for the mediating effect of
89 sociations were estimated with quasi-Poisson regression models and then pooled by random-effects meta
90 ariate analysis were fed into a multivariate regression model, and models were built by combining ind
91 ch of the response using a univariate linear regression model, and to select predictors that meet a p
92 ence rates, hazard ratios using adjusted cox-regression models, and standardized mortality/morbidity
93 log-contrast regression model and Dirichlet regression model are proposed to estimate the causal dir
98 ment and validation of a new signature-based regression model, augmented with a particular choice of
100 n discrimination in a multivariable logistic regression model (C-statistic 0.82 vs 0.78; p = 0.0009).
102 multivariable-adjusted conditional logistic regression models, caffeic acid (ORlog2: 0.55; 95% CI: 0
110 ared risks of SPM using a cause-specific Cox regression model considering death as a competing risk f
111 ivariate ordinary least squares and logistic regression models controlling for a wide range of contro
113 Using the discovery cohort, multivariate Cox regression modeling defined a minimal model including wh
115 ciated with results reporting using logistic regression models, described sponsor-level reporting, ex
117 est; Spearman's correlation and log-binomial regression model estimated the association between MMPs
122 ss index (BMI) <25 or >=25 kg/m(2); logistic regression models evaluated preconception lipid concentr
127 ransition status, and multivariable logistic regression models examined factors associated with satis
129 hed NK cell subpopulations implicated in the regression model exhibited enhanced effector functions a
135 assessed using a linear and binary logistic regression modeling for the continuous and categorical o
137 nalyses were best fit with quartic and cubic regression models for CT and FSSC/BSSC, respectively.
138 used Poisson generalized estimating equation regression models for longitudinal binary outcomes.
139 net, RF, XGBoost, LightGBM) to commonly used regression models for prediction of undiagnosed T2DM.
140 ional hazards models and hierarchical linear regression models for the primary outcomes of all-cause
141 , we assessed 33 982 HCTs using multivariate regression models for the role of HLA mismatching on out
145 ge of the fact that the conditional logistic regression model (i.e. the SSF) is likelihood-equivalent
150 We derived an estimated CNS from a linear regression model in which we regressed the observed CNS
155 Measurements and predictions of a land-use regression model indicate moderate spatial correlation b
161 n the multivariable Cox proportional hazards regression model, major vascular complications (P=0.044)
162 d predicted response to ICS through logistic regression models.Measurements and Main Results: We iden
163 he unmeasured CpG sites using the mixture of regression model (MRM) of radial basis functions, integr
164 an be achieved using a multivariate logistic regression model of MRI parameters after thresholding th
169 than the previous state-of-the-art logistic regression model (PPV of 17% [SD: 0.06]) and the baselin
171 uated the utility of the DHIs using multiple regression models predicting moose abundance by administ
174 ne learning algorithm and traditional linear regression model, respectively, with soil temperature an
177 troscopy with 1D-CNN as a classification and regression model show a good performance, and such a met
184 using three-level random-intercept logistic regression models, showing no differences in neonatal or
187 inus the adjusted odds ratio from a logistic regression model that compared vaccination history for w
189 The method is based on a piecewise linear regression model that was developed to predict the bound
192 d a multivariable, multilevel random-effects regression model to analyze current factors associated w
194 ctivity, and trained a linear support vector regression model to estimate verbal memory performance b
195 ultivariate response random effects logistic regression model to simultaneously examine variation and
199 tive outcomes, we used multivariate logistic regression models to adjust for clinical and demographic
200 vidual descriptors and clusters, we used Cox regression models to assess associations with time from
201 encounter, and we used multivariate logistic regression models to assess demographic and clinical fac
202 nd, in a post-hoc analysis, we used logistic regression models to assess the association between demo
215 or glaucoma versus nonglaucoma from logistic regression models using MRW-BMO values from all sectors
216 permutational multivariate ANOVA and hurdle regression models using the negative binomial distributi
217 omic disadvantage with hierarchical logistic regression models, using practices serving the fewest so
219 tistical analysis, the cause-specific hazard regression model was applied, with clinically relevant C
232 ated a significant difference), and binomial regression model were used to analyze differences across
236 idual univariable and multivariable logistic regression models were assessed for each time-weighted-a
237 squared (PLS)-discriminant analysis, and PLS-regression models were assessed to examine relations bet
251 comparison between groups, and multivariate regression models were used for association between MRI
254 ate and multivariate Cox proportional hazard regression models were used to analyze predictors of sur
259 survival curves and Cox proportional hazard regression models were used to assess clinical character
287 ymptom onset was examined in a multivariable regression model, which was reduced by stepwise backward
288 ared with those of a commonly adopted linear regression model, which we refer to here as linear trend
289 rion in a stepwise fashion to build logistic regression models, which were then translated into predi
291 ffects on the quantitative trait by a linear regression model with random effects and develop efficie
292 was calculated, and a multivariate logistic regression model with random intercepts was used to comp
294 results among outpatients using mixed-effect regression models with a random effect for study site ho
295 s for mortality were calculated by using Cox regression models with emphysema as the main predictor.
298 adjusted cluster Chi-square and hierarchical regression models with program-level intercepts measured