10 research outputs found

    Corrigendum : Clustering of adherence to personalised dietary recommendations and changes in healthy eating index within the Food4Me study (Public Health Nutrition 19:18 (3296-305) DOI: 10.1017/S1368980016001932)

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    © The Authors 2019.Original text and corrections: ORIGINAL TEXT (page 3296, Abstract) Subjects: Adults aged 18-79 years (n 1480). CORRECTION Subjects: Adults aged 18-79 years at baseline (n 1480). ORIGINAL TEXT (page 3298, Results) Of the 5562 individuals who registered on the Food4Me website, 1607 were randomised into the study and a total of 1480 provided baseline data on dietary intakes(17). CORRECTION Of the 5562 individuals who registered on the Food4Me website, 1607 were randomised into the study. A total of 1480 participants provided baseline data on dietary intakes (15). Following exclusion of missing data for covariates the baseline sample was 1285. A total of 1147 participants provided complete follow up data. ORIGINAL TEXT (page 3300, Results) There were no significant differences in changes in HEI between clusters when PN was stratified by Level 1, Level 2 or Level 3 (data not shown). CORRECTION The results for when PN was stratified by L1, L2 or L3 are presented in Supplementary Table 5. For participants in L2, there were bigger improvements in HEI for participants in C4 compared with C1 (P <0.001) and in C3 and C2 compared with C1 (<0.05). For participants in L3, there were bigger improvements in HEI for participants in C4 compared with C1 and C2 (P<0.05) (Supplementary Table 5). There were no significant differences for participants in L1. ORIGINAL TEXT (page 3300, Results) Exclusion of participants with reported intakes more than 3 SD above or below the mean dietary intakes of whole grains, oily fish, red meat and fruit and vegetables revealed similar clusters (see online supplementary material, Supplemental Table 5).CORRECTION Exclusion of participants with reported intakes more than 3 SD above or below the mean dietary intakes of wholegrain, oily fish, red meat and fruit and vegetables revealed similar clusters (Supplementary Table 6). ORIGINAL TEXT (page 3302, Discussion) We observed that individuals in the cluster where the fewest recommendations were met (C4) reported the biggest improvement in HEI following PN intervention but there were no differences between clusters in response to conventional, non-personalised dietary advice. CORRECTION We observed that individuals in the cluster where the fewest recommendations were met (C4) reported the biggest improvement in HEI following PN intervention. ORIGINAL TEXT (page 3302, Discussion) Fig. 1 Changes from baseline to month 6 in Healthy Eating Index 2010 (HEI) score by cluster of adherence to dietary recommendations at baseline among adults aged 18-79 years (n 1480), Food4Me study. CORRECTION Figure 1 Changes from baseline to month 6 in Healthy Eating Index by clusters of adherence to recommendations at baseline among adults aged 18-79 years (n 1,147), Food4Me study. ORIGINAL TEXT (page 3300, Results) Table needed CORRECTION Table 1 Food and nutrient and intakes by participants by clusters of adherence to recommendations at baseline among adults aged 18-79 years (n 1285), Food4Me study (Table Presented).Peer reviewe

    Reproducibility of the Online Food4Me Food-Frequency Questionnaire for Estimating Dietary Intakes across Europe

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    Accurate dietary assessment is key to understanding nutrition-related outcomes and is essential for estimating dietary change in nutrition-based interventions. Objective: The objective of this study was to assess the pan-European reproducibility of the Food4Me food-frequency questionnaire (FFQ) in assessing the habitual diet of adults. Methods: Participants from the Food4Me study, a 6-mo, Internet-based, randomized controlled trial of personalized nutrition conducted in the United Kingdom, Ireland, Spain, Netherlands, Germany, Greece, and Poland, were included. Screening and baseline data (both collected before commencement of the intervention) were used in the present analyses, and participants were included only if they completed FFQs at screening and at baseline within a 1-mo timeframe before the commencement of the intervention. Sociodemographic (e.g., sex and country) and lifestyle [e.g., body mass index (BMI, in kg/m(2)) and physical activity] characteristics were collected. Linear regression, correlation coefficients, concordance (percentage) in quartile classification, and Bland-Altman plots for daily intakes were used to assess reproducibility. Results: In total, 567 participants (59% female), with a mean +/- SD age of 38.7 +/- 13.4 y and BMI of 25.4 +/- 4.8, completed both FFQs within 1 mo (mean +/- SD: 19.2 +/- 6.2 d). Exact plus adjacent classification of total energy intake in participants was highest in Ireland (94%) and lowest in Poland (81 %). Spearman correlation coefficients (p) in total energy intake between FFQs ranged from 0.50 for obese participants to 0.68 and 0.60 in normal-weight and overweight participants, respectively. Bland-Altman plots showed a mean difference between FFQs of 210 kcal/d, with the agreement deteriorating as energy intakes increased. There was little variation in reproducibility of total energy intakes between sex and age groups. Conclusions: The online Food4Me FFQ was shown to be reproducible across 7 European countries when administered within a 1-mo period to a large number of participants. The results support the utility of the online Food4Me FFQ as a reproducible tool across multiple European populations
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