Chrononutrition/ Chronotoxicity Intervention in People With Metabolic-associated Steatotic Liver Disease.

Changes in body weight (in kilograms) from baseline to the end of intervention in the TRE and the Soc group (intervention vs control, respectively). Depending on the data distribution, independent samples t-test or Wilcoxon Rank-Sum Test will be used If the changes do or do not follow a normal distribution between baseline and post-treatment are normally distributed, respectively. Mixed Effect Models will be used to assess the main and interaction (included if p<0.05) effects between groups and time since study initiation adjusting for confounders, including circadian rhythm metrics such as melatonin and/or cortisol.

Changes in body fat mass (expressed as % of the total body weight in kilograms) from baseline to the end of intervention in the TRE and the Soc group (intervention vs control, respectively). Depending on the data distribution, independent samples t-test or Wilcoxon Rank-Sum Test will be used If the changes do or do not follow a normal distribution between baseline and post-treatment are normally distributed, respectively. Mixed Effect Models will be used to assess the main and interaction (included only if p<0.05) effects between groups and time since study initiation adjusting for confounders, including circadian rhythm metrics such as melatonin and/or cortisol.

Change in Pesticide Metabolite 3-phenoxybenzoic Acid (3-PBA) Levels in Urine (in µg/L, corrected for creatinine levels) between the TRE and the SoC intervention. Percent change in pesticide metabolite 3-phenoxybenzoic acid (3-PBA) levels between the last sample of the TRE group (intervention period) and the last sample of the SoC treatment period. The results of the linear-mixed effect models are the ones considered as they take into account the repeated measures for each participant and the TRE treatment duration adjusting for confounders, including circadian rhythm metrics such as melatonin and/or cortisol.

Change in Pesticide Metabolite 6-chloronicotininc Acid (6-CN) Levels in Urine (in µg/L, corrected for creatinine levels) between the TRE and the SoC intervention. Percent change in pesticide metabolite 6-chloronicotininc Acid (6-CN) levels between the last sample of the TRE group (intervention period) and the last sample of the SoC treatment period. The results of the linear-mixed effect models are the ones considered as they take into account the repeated measures for each participant and the TRE treatment duration adjusting for confounders, including circadian rhythm metrics such as melatonin and/or cortisol.

Changes in waist circumference (in centimetres) from baseline to the end of intervention in the TRE and the Soc group (intervention vs control, respectively). Depending on the data distribution, independent samples t-test or Wilcoxon Rank-Sum Test will be used If the changes do or do not follow a normal distribution between baseline and post-treatment are normally distributed, respectively. Mixed Effect Models will be used to assess the main and interaction (included if p<0.05) effects between groups and time since study initiation adjusting for confounders, including circadian rhythm metrics such as melatonin and/or cortisol.

Change in Urine levels of the biomarker of oxidative stress 4-Hydroxynonenal (4HNE) (in µg/L, corrected for creatinine levels), between the TRE and the SoC intervention. Percent change in metabolite of oxidative stress of 4-Hydroxynonenal (4HNE) levels between the last sample of the TRE group (intervention period) and the last sample of the SoC treatment period. The results of the linear-mixed effect models are the ones considered as they take into account the repeated measures for each participant and the TRE treatment duration adjusting for confounders, including circadian rhythm metrics such as melatonin and/or cortisol.

Changes in Body Mass Index (in kilograms divided by meters in square) from baseline to the end of intervention in the TRE and the Soc group (intervention vs control, respectively). Depending on the data distribution, independent samples t-test or Wilcoxon Rank-Sum Test will be used If the changes do or do not follow a normal distribution between baseline and post-treatment are normally distributed, respectively. Mixed Effect Models will be used to assess the main and interaction (included if p<0.05) effects between groups and time since study initiation adjusting for confounders, including circadian rhythm metrics such as melatonin and/or cortisol.

Changes on blood's glucose (Gluc) levels (in mg/dL) from baseline to the end of intervention in the TRE and the Soc group (intervention vs control, respectively). Depending on the data distribution, independent samples t-test or Wilcoxon Rank-Sum Test will be used If the changes do or do not follow a normal distribution between baseline and post-treatment are normally distributed, respectively. Mixed Effect Models will be used to assess the main and interaction (included if p<0.05) effects between groups and time since study initiation adjusting for confounders, including circadian rhythm metrics such as melatonin and/or cortisol.

Changes on blood's total cholesterol (TC) levels (in mg/dL) from baseline to the end of intervention in the TRE and the Soc group (intervention vs control, respectively). Depending on the data distribution, independent samples t-test or Wilcoxon Rank-Sum Test will be used If the changes do or do not follow a normal distribution between baseline and post-treatment are normally distributed, respectively. Mixed Effect Models will be used to assess the main and interaction (included if p<0.05) effects between groups and time since study initiation adjusting for confounders, including circadian rhythm metrics such as melatonin and/or cortisol.

Changes on blood's high-density lipoprotein cholesterol (HDL) levels (in mg/dL) from baseline to the end of intervention in the TRE and the Soc group (intervention vs control, respectively). Depending on the data distribution, independent samples t-test or Wilcoxon Rank-Sum Test will be used If the changes do or do not follow a normal distribution between baseline and post-treatment are normally distributed, respectively. Mixed Effect Models will be used to assess the main and interaction (included if p<0.05) effects between groups and time since study initiation adjusting for confounders, including circadian rhythm metrics such as melatonin and/or cortisol.

Changes on blood's low-density lipoprotein cholesterol (LDL) levels (in mg/dL) from baseline to the end of intervention in the TRE and the Soc group (intervention vs control, respectively). Depending on the data distribution, independent samples t-test or Wilcoxon Rank-Sum Test will be used If the changes do or do not follow a normal distribution between baseline and post-treatment are normally distributed, respectively. Mixed Effect Models will be used to assess the main and interaction (included if p<0.05) effects between groups and time since study initiation adjusting for confounders, including circadian rhythm metrics such as melatonin and/or cortisol.

Changes on blood's alanine transaminase (ALT) levels (in U/IL) from baseline to the end of intervention in the TRE and the Soc group (intervention vs control, respectively). Depending on the data distribution, independent samples t-test or Wilcoxon Rank-Sum Test will be used If the changes do or do not follow a normal distribution between baseline and post-treatment are normally distributed, respectively. Mixed Effect Models will be used to assess the main and interaction (included if p<0.05) effects between groups and time since study initiation adjusting for confounders, including circadian rhythm metrics such as melatonin and/or cortisol.

Changes on blood's aspartate aminotransferase (AST) levels (in U/IL) from baseline to the end of intervention in the TRE and the Soc group (intervention vs control, respectively). Depending on the data distribution, independent samples t-test or Wilcoxon Rank-Sum Test will be used If the changes do or do not follow a normal distribution between baseline and post-treatment are normally distributed, respectively. Mixed Effect Models will be used to assess the main and interaction (included if p<0.05) effects between groups and time since study initiation adjusting for confounders, including circadian rhythm metrics such as melatonin and/or cortisol.

Changes on blood's C-Reactive Protein (CRP) levels (in mg/dL) from baseline to the end of intervention in the TRE and the Soc group (intervention vs control, respectively). Depending on the data distribution, independent samples t-test or Wilcoxon Rank-Sum Test will be used If the changes do or do not follow a normal distribution between baseline and post-treatment are normally distributed, respectively. Mixed Effect Models will be used to assess the main and interaction (included if p<0.05) effects between groups and time since study initiation adjusting for confounders, including circadian rhythm metrics such as melatonin and/or cortisol.

Change in Change in other pesticide biomarkers in Urine (in µg/L, corrected for creatinine levels) between the TRE and the SoC intervention. Percent change in any other measured pesticide metabolite between the last sample of the TRE group (intervention period) and the last sample of the SoC treatment period. The results of the linear-mixed effect models are the ones considered as they take into account the repeated measures for each participant and the TRE treatment duration. Levels in Urine (in µg/L, corrected for creatinine levels) between the TRE and the SoC intervention. Percent change in other pesticide biomarker levels between the last sample of the TRE group (intervention period) and the last sample of the SoC treatment period. The results of the linear-mixed effect models are the ones considered as they take into account the repeated measures for each participant and the TRE treatment duration, adjusting for confounders, including circadian rhythm metrics.

Change in other biomarkers of oxidative stress in Urine (in µg/L, corrected for creatinine levels) between the TRE and the SoC intervention. Percent change in any other measured biomarkers of oxidative stress between the last sample of the TRE group (intervention period) and the last sample of the SoC treatment period. The results of the linear-mixed effect models are the ones considered as they take into account the repeated measures for each participant and the TRE treatment duration. Levels in Urine (in µg/L, corrected for creatinine levels) between the TRE and the SoC intervention. Percent change in other pesticide biomarker levels between the last sample of the TRE group (intervention period) and the last sample of the SoC treatment period. The results of the linear-mixed effect models are the ones considered as they take into account the repeated measures for each participant and the TRE treatment duration adjusting for confounders, including circadian rhythm metrics.

Change in metabolome profile in the 24-h in saliva or urine (in µg/L, corrected for creatinine levels) between the TRE and the SoC intervention. Percent change in metabolome profile between the last day samples of the TRE group (intervention period) and the last day samples of the SoC treatment period will be compared with an Exposome wide association analysis.