Additional file 1 of Visceral adipose tissue area and proportion provide distinct reflections of cardiometabolic outcomes in weight loss; pooled analysis of MRI-assessed CENTRAL and DIRECT PLUS dietary randomized controlled trials

Additional File 1: Methods S1: Exclusion criteria of the CENTRAL and DIRECT PLUS trials. Methods S2: Magnetic resonance imaging. Methods S3: Clinical parameters and laboratory methodology. Results S1: Cutoff values for metabolic syndrome and diabetes at baseline. Table S1: Baseline, end of intervention, and changes in key metabolic and adiposity variables. Table S2: Baseline characteristics of the CENTRAL and DIRECT PLUS clinical trials participants across sex-specific deciles of visceral adipose tissue proportion. n = 572 participants. Fig. S1: Baseline visceral abdominal adipose tissue area and proportion across various characteristics; Heatmap of Kendall’s tau correlations. Table S3: Visceral adiposity phenotypes of similar and opposite sex-specific visceral adipose tissue area and proportion medians. N = 553. Table S4: Post hoc analysis of visceral adiposity phenotypes of similar and opposite sex-specific visceral adipose tissue area and proportion medians. N = 553. Table S5: LASSO developed models for baseline VAT area. Table S6: LASSO developed models for baseline VAT proportion. Table S7: LASSO developed models for VAT area relative change. Table S8: LASSO developed models for VAT proportion relative change. Table S9: Participants’ characteristics in the training and testing data sets for baseline VAT area model development. Fig. S2: LASSO linear regression models of baseline and change VAT area and proportion (men only). Fig. S3: LASSO linear regression models of baseline and change VAT area and proportion while accounting for physical activity. Fig. S4: LASSO linear regression models of baseline and change VAT area and proportion while accounting for physical activity (men only). Fig. S5: LASSO linear regression models of baseline and change VAT area and proportion for clinical practice application. Fig. S6: LASSO linear regression models of baseline and change VAT area and proportion for clinical practice application (men only).

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Publication Details

Journal
Figshare
Published
2025-01-01
DOI
https://doi.org/10.6084/m9.figshare.28340774
Primary Topic
Cardiovascular Disease and Adiposity
Type
article
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0.00
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article

Additional file 1 of Visceral adipose tissue area and proportion provide distinct reflections of cardiometabolic outcomes in weight loss; pooled analysis of MRI-assessed CENTRAL and DIRECT PLUS dietary randomized controlled trials

Figshare
Cardiovascular Disease and Adiposity
article

Additional file 1 of Visceral adipose tissue area and proportion provide distinct reflections of cardiometabolic outcomes in weight loss; pooled analysis of MRI-assessed CENTRAL and DIRECT PLUS dietary randomized controlled trials

article en

Abstract

Additional File 1: Methods S1: Exclusion criteria of the CENTRAL and DIRECT PLUS trials. Methods S2: Magnetic resonance imaging. Methods S3: Clinical parameters and laboratory methodology. Results S1: Cutoff values for metabolic syndrome and diabetes at baseline. Table S1: Baseline, end of intervention, and changes in key metabolic and adiposity variables. Table S2: Baseline characteristics of the CENTRAL and DIRECT PLUS clinical trials participants across sex-specific deciles of visceral adipose tissue proportion. n = 572 participants. Fig. S1: Baseline visceral abdominal adipose tissue area and proportion across various characteristics; Heatmap of Kendall’s tau correlations. Table S3: Visceral adiposity phenotypes of similar and opposite sex-specific visceral adipose tissue area and proportion medians. N = 553. Table S4: Post hoc analysis of visceral adiposity phenotypes of similar and opposite sex-specific visceral adipose tissue area and proportion medians. N = 553. Table S5: LASSO developed models for baseline VAT area. Table S6: LASSO developed models for baseline VAT proportion. Table S7: LASSO developed models for VAT area relative change. Table S8: LASSO developed models for VAT proportion relative change. Table S9: Participants’ characteristics in the training and testing data sets for baseline VAT area model development. Fig. S2: LASSO linear regression models of baseline and change VAT area and proportion (men only). Fig. S3: LASSO linear regression models of baseline and change VAT area and proportion while accounting for physical activity. Fig. S4: LASSO linear regression models of baseline and change VAT area and proportion while accounting for physical activity (men only). Fig. S5: LASSO linear regression models of baseline and change VAT area and proportion for clinical practice application. Fig. S6: LASSO linear regression models of baseline and change VAT area and proportion for clinical practice application (men only).

Figshare
Tulane University (US), Ben-Gurion University of the Negev (IL), Brigham and Women's Hospital (US), Sapir College (IL), Tel Aviv University (IL), Soroka Medical Center (IL), Harvard University Press (US), University Hospital Leipzig (DE), Leipzig University (DE)
Openalex Percentile: Top 38%
Cardiovascular Disease and Adiposity
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