Submitted:
08 February 2024
Posted:
09 February 2024
You are already at the latest version
Abstract
Keywords:
1. Introduction
2. Secular trends in plant-based diets in children
3. Associations of plant-based diets with child health outcomes
3.1. Body composition and anthropometry
3.2. Bone health
3.3. Nutritional biomarkers
3.4. Cardiometabolic risk factors
3.4.1. Assessment of bias
3.4.2. Conflicting position statements of medical and nutritional institutions around the world
4. Roadmap for future research
5. Conclusions
Supplementary Materials
Author Contributions
Funding
Institutional Review Board Statement
Data Availability Statement
Conflicts of Interest
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| Authors, year, place | Study characteristics | Participants | Dietary data collection | Health outcomes measured | Results |
|---|---|---|---|---|---|
| Ambroszkiewicz et al. 2017. The Institute of Mother and Child (IMC) in Warsaw, Poland [68]. | Cross-sectional; data collection 2015-2016; from a group of patients seeking dietary counselling at the IMC. | 43 vegetarian (VG) prepubertal children (age range 4.5–9.0 years), 46 omnivore (OM) children. No data on socio-economic status (SES) or physical activity (PA). | 3-day food diary, data on average daily energy, protein, fat, carbohydrates, dietary iron and vitamin intakes collected. | Serum haemoglobin (Hb), red blood cells, and mean corpuscular volume, iron, ferritin, and transferrin, C-reactive protein (CRP), hepcidin (bioactive heptidin-25 molecule) and soluble transferrin receptor concentration (sTfR); weight (WT), height (HT) | Lower ferritin and median hepcidin concentrations in VG; sTfR concentrations significantly higher in VG compared to OM. No difference in serum transferrin between groups; other hematologic parameters and serum iron were within the reference range in both groups. No differences in WT, HT, BMI between VG and OM. |
| Ambroszkiewicz et al 2018. The IMC, Warsaw, Poland [69]. | Cross-sectional; data collection 2014-2017; from a group of patients seeking dietary counselling at the IMC. | 70 children (age range 5–10 years) on a VG diet from birth, 60 OM children. No data on SES. PA study inclusion criteria – more than 2h of activity per week. No information on how this data was collected. | 3-day food diary, data on average daily energy, protein, fat, carbohydrates, and dietary minerals and vitamin intakes collected. | Bone mineral content (BMC), and bone mineral density (BMD) in the total body (tBMD) and at the lumbar spine (BMD L1–L4), lean and fat mass by dual-energy X-ray absorptiometry (DXA); height, weight; bone alkaline phosphatase (BALP), C-terminal telopeptide of type I collagen (CTX-I), osteoprotegerin, nuclear factor κB ligand, sclerostin, and Dickkopf-related protein 1; 25-hydroxyvitamin D (25-OH D) and parathormone (PTH); HT and WT. | No significant differences in body composition, HT, BMI z-scores or BMC and BMD, 25-OH D between VG and OM children, however a trend for spine BMC and BMD of VG to be lower; VG significantly higher level of BALP and CTX-I (interpreted as a higher rate of bone turnover markers) and higher median levels of PTH) than OM. |
| Ambroszkiewicz et al. 2018. The IMC, Warsaw, Poland [70]. | Cross-sectional; data collection 2017-2018; from a group of patients seeking dietary counselling at the IMC. | 62 children (age range 5–10 years) on a VG diet from birth, 55 OM children. No data on SES. PA assessed by questionnaire. | 3-day food diary, data on average daily energy, protein, fat, carbohydrates, and dietary fibre intake collected. | Serum concentrations of adipokines: leptin, soluble leptin receptor (sOB-R), adiponectin, resistin, visfatin, vaspin, and omentin; fat mass, lean mass, and fat free mass by DXA; fat mass index and lean mass index were calculated; HT and WT. | No difference in WT, HT, BMI, and body composition between groups. VG had lower leptin/sOB-R ratio and lower serum concentrations of resistin, compared with OM; average levels of other adipokines did not differ between both groups; VG had significantly higher ratios of anti-inflammatory to pro-inflammatory adipokines: adiponectin/leptin and omentin/leptin compared with OM. |
| Ambroszkiewicz et al. 2019. The IMC, Warsaw, Poland [71]. | Cross-sectional; data collection 2014-2016; from a group of patients seeking dietary counselling at the IMC. | 53 children (age range 5–10 years) on a VG diet, 53 OM children. No data on SES. PA assessed by questionnaire. | 3-day food diary, data on average daily energy, protein, fat, carbohydrates, and dietary minerals and vitamin intakes collected. Complete dietary data was available for 25 pairs of VG & OM. | WT, HT; body composition and BMD by DXA. 25-OH D and PTH, serum carboxy-terminal propeptide of type I collagen (CICP), total osteocalcin and its forms carboxylated and undercarboxylated, CTX-I, leptin and adiponectin levels. | No difference in HT, WT, BMI z-scores or body composition between VG and OM, except for percentage fat mass, lower in VG. Mean total BMD z-score and lumbar spine BMD z-score were lower in VG compared with OM; however absolute values of bone mineral density did not differ; serum leptin level was 2-fold lower in VGs, reflecting lower body fat; VG had higher PTH and CTX; similar levels of adiponectin, osteocalcin, CICP, and 25 (OH) D; BMD z-scores did not correlate with bone metabolism markers and nutritional variables, but were positively associated with anthropometric parameters. |
| Weder et al. 2019. The VeChi DietStudy, Germany [58]. | Cross-sectional; data collection 2016-2018, collecting data from VG, VN, and OM children throughout Germany. OM children partially recruited from the DONALD [72] study (as insufficient OM participants were recruited via the VeChi Study). | 430 children: 127 VG,139 vegan (VN), 164 OM, aged 1-3 years. SES and urbanicity data collected. PA assessed by questionnaire. | 3-day weighed dietary records; breast milk intakes were estimated with the methodology from the DONALD study [72]. Energy, macronutrients, and fibre intakes were calculated. | Data from parents or a paediatrician proxy-assessed WT and HT during the last medical check-up. | Anthropometrics did not significantly differ between diet groups and indicated on average normal growth in all groups. However, more VN (3.6%) and VG (2.4%) than OM children (0%) were classified as stunted or wasted. |
| Hovinen et al. 2021. Municipal day-care centres, Helsinki, Finland [59]. | Cross-sectional; data collection 2017, from 20 municipal day-care centres offering vegan meals in Helsinki. | 6 VN (vegan from birth); 10 VG, 24 OM; median age 3.5 years (1-7 years). Vegetarian children defined as those on a lactovegetarian diet or on a pescetarian diet (eating fish). No data on PA or SES. | The children were consuming nutritionist-planned diets in day-care centres, designed to meet nutritional recommendations. | WT, HT, mid-upper arm circumference (MUAC); numerous biomarkers. Serum amino acids, vitamin A, 25 (OH)D, DHA, and other micronutrients; total cholesterol, HDL -C and LDL -C, endogenous hepatic cholesterol biosynthesis markers, bile acid biosynthesis markers. | HT and BMIs of all children compared to the current Finnish growth references; there was no difference between diet groups in z-scores of HT, BMI, or MUAC. All fractions of blood lipid levels were significantly lower in VN than OM. Biomarkers for amino acids, fat-soluble vitamins A, D and DHA were markedly lower in VN. Bile acid biosynthesis pathway differed most significantly between VN and OM, VN had a bile acid pathway similar to a profile of fasted children. |
| Ferrara et al. 2021. Italy [60]. | Longitudinal study of infants born to mothers on VN, VG and OMN study, follow up in the first year of life; data collection 2017-2018. Participants recruited via the Campus Bio-Medico University Hospital, Romand vegetarian societies. | 63 participants: 21 infants from vegan pregnancies; 21 infants from vegetarian pregnancies; 21 infants from omnivorous pregnancies. | Food frequency questionnaire to classify mothers to appropriate dietary pattern. | Weight at birth, 6 months and 12 months (in grams and in growth percentiles); birth length in cm, body length expressed in growth percentiles at 12 months; BMI at 6 months. |
Vegan infants had lower birthweight, weight at 6 months and 12 months, both when expressed in grams and when expressed in growth percentiles than OMN infants. VN infants had lower body length expressed in growth percentiles at 12 months and lower BMI at 6 months than OMN. N significant differences between OMN and VG. |
| Alexy et al. 2021. The VeChi Youth Study, Germany [65]. | Cross-sectional; data collection 2016-2018, collecting data from VG, VN, and OM children throughout Germany. | 401 children: 149 VG; 115 VN; 137 OM; 6-18 years old, mean age: 12.7 ± 3.9 years; average time on a diet ca. 5.0 (± 3.9) years for vegetarians, and 4.2 (± 3,4) years for vegans. SES and urbanicity data collected. PA assessed by questionnaire. | 3-day weighed dietary records; energy, macronutrients, and selected micronutrients were calculated along with supplement use. | HT, WT; blood parameters: Hb, vitamin B2, and folate; ferritin, 25 (OH)D, holotranscobalamin (holoTC), methylmalonic acid (MMA), triglycerides TG) and total, LDL and HDL cholesterol. | No difference in average HT, WT, BMI z scores, however tendency for the lower values in VN; no significant difference in median Hb, vitamin B2, 25 (OH)D, HDL-C and TG concentrations between diet groups. VN had higher folate concentrations than VG; VN and VG had lower ferritin concentration than OM; VG but not VN had lower concentrations of holoTC and higher concentrations of MMA than OM, reflecting high (88%) vit. B12 supplementation prevalence in VN, but not in VG (39%). VN had the lowest non-HDL-C and LDL-C concentrations in comparison to VG and OM. A high prevalence (>30%) of 25 (OH)D and vitamin B2 concentrations below reference values were found irrespective of the diet group, however that percentage tended to be higher in VN and/or VG than in OM. |
| Desmond et al. The Children’s Memorial Health Institute, Warsaw, Poland [16]. |
Cross-sectional, data collection 2014-2016; recruited advertisements in social media, and websites focused on veganism (VG and VG; and health food stores (OM). OM matched to either VN or VG on age, sex and 2 indices of socio-economic status. | 187 children: 63 VG, 52 VN, 72 OM; age 5-10 years. Average time on a diet ca. 5.3 years for vegetarians, and 5.9 years for vegans. SES and urbanicity data collected. PA data collected by accelerometery. | 4 -day food diary, animal product consumption screener; energy, macro- and most micronutrient intakes along with supplemental practices were ascertained. | Body composition (BC): HT, WT, mid-thigh, waist, and hip girths; and biceps, triceps, subscapular, and suprailiac skinfolds; additionally BC by deuterium dilution and DXA. Cardiovascular risk factors: serum total cholesterol (TC), HDL cholesterol (HDL-C), LDL cholesterol (LDL-C), VLDL cholesterol (VLDL- C), and triglycerides (TG), high-sensitivity C-reactive protein (hs-CRP), fasting glucose, IGF-1, IGFBP-3. Carotid intima-media thickness (cIMT) by ultrasonography. Micronutrient status by complete blood count, including mean corpuscular volume (MCV), serum ferritin, vitamin B12, homocysteine (hcys), 25 (OH)D; bone health was assessed by DXA (bone mineral content in total body and spine (L1-L4) adjusted by body size) and calculating bone apparent mineral density (BMAD). | VG had lower gluteofemoral adiposity but similar total fat and lean mass. VN had lower fat indices in all regions, lower fat mass index z-score, but similar lean mass. VG and VN had lower total and L1-L4 BMC, the difference remained only in VN after accounting for body size. VN were on average 3.15 cm shorter than OM. VG had lower TC, HDL-C, and serum B12 and 25(OH)D without supplementation; higher glucose, VLDL, and TG. Vegans were shorter and had lower TC, LDL-C and HDL-C, hs-CRP, iron status, and serum B12 and 25(OH)D without supplementation, but higher hcys and MCV. Vitamin B12 deficiency, iron-deficiency anaemia, low ferritin, and low HDL were more prevalent in vegans, who also had the lowest prevalence of high LDL. Supplementation resolved low B-12 and 25(OH)D concentrations in both groups. |
| Světnička et al. 2022. The Czech Vegan Children Study (CAROTS), Czech Republic [63]. | Cross-sectional, data collection 2019-2021; recruited via GPs and other specialists, advertisements in social media, and websites focused on veganism. | 200 children: 79 VG, 69 VN and 52 OM; age ranging from 0 to 18 years. No data on PA or SES collected. | 3-day weighed dietary records; energy and macro- and micronutrient intakes along with supplemental practices were ascertained; breast milk intakes were estimated from mothers’ registrations and general recommendations for breast milk intake. | WT, HT; blood concentration of holoTC, cyanocobalamin (B12), folate, hcys, MCV, and Hb. | No difference in BMI percentile, HT and WT percentile between groups; VN tended to have lower medians of BMI and weight percentile; significantly more VN were in the <=3 percentile BMI category than in the other two groups; no significant differences in levels of holoTC, folate, hcys, or MCV; 1 VG and 2 VN children identified as B12 deficient; however, 83% of vegan children and 70% vegetarians supplemented vit. B12. In a subgroup of n=12 VG and n=36 VN, age 0-3 years, breastfed at the moment of examination born to VN/VG mothers, concentrations of holoTC, B12, were lower and hcys higher in VN infants not supplementing vit. B12. 35 VG (44%), 28 VN (40%), and 9 OM children had vitamin B12 hypervitaminosis, related to a high prevalence of over-supplementation in the group. Significant difference in B12, holoTC, and hcys levels of supplemented vs. non-supplemented VG/VN children was detected. |
| Světnička et al. 2023. The Czech Republic [62]. | Cross -sectional, data collection 2019-2021; recruited via GPs and other specialists, advertisements in social media, and websites focused on veganism. | 222 children: 91 VG, 75 were VN and 52 OM; age 0 to 18 years. No data on PA or SES collected. | 3-day weighed dietary records to evaluate iodine intake; the use of iodine supplements and their dosages and frequencies were assessed by questionnaire; breast milk intakes were estimated from mothers’ registrations and general recommendations for breast milk intake. | WT, HT. Serum TSH, fT4, fT3, thyroglobulin, and levels of anti-thyroid peroxidase antibody (ATPOc) and anti-thyroglobulin antibodies (AhTGc) concentration of iodine in spot urine (UIC). | No difference in WT percentile, HT percentile between the groups, but lower BMI z-score in VN and a higher number n = 7 (i.e. 9%) of VN children below the 3rd percentile. No differences in TSH levels, fT3, thyroglobulin or ATPOc between the VG, VN, and OM groups; higher levels of fT4 in VN compared to the OM. The presence of AhTGc was more common in the VG (18.2%)/VN (35.0%) than in the OM group (2.1%). The UIC was found to be highest in the OM group vs. VG and VN. 31 VN, 31 VG and 10 OM children met the criteria for iodine deficiency (i.e., UIC < 100 µg/l). 16.3% vegetarians and 21.8% of vegans took iodine supplements. VN and VG children may be more at higher risk of iodine deficiency, this theory is also supported by higher prevalence of AhTGc positivity. |
| Elliott et al. 2023. The TARGet Kids! cohort study. Canada [64]. |
A longitudinal cohort study. data was collected repeatedly between 2008 and 2019 during scheduled health supervision visits in primary care practices. | 8,907 children, including 248 VG children at baseline; aged 6 months to 8 years. 69% (6175 of 8907) of children had 2 or more measures. Growth data were available on 8794 children. No data on PA or SES collected. | Dietary group assessed by parental self- declaration of the child being on vegetarian or vegan diet. Both were classified as vegetarian (VG). | HT, WT, serum ferritin, 25 (OH)D, and serum lipids (non-HDL-C, TC, LDL-C, HDL-C, and TG). | No association between vegetarian diet and BMI z-score, height-for-age z-score, serum ferritin, 25 (OH)D, or serum lipids. VG had higher odds of underweight (BMI z-score <−2); no association of diet with overweight or obesity. |
| Rowicka et al. 2023 The IMC, Warsaw, Poland [67]. |
Cross- sectional; data collection 2020-2021; from a group of patients seeking dietary counselling at the IMC. | 32 VG children (age range 2–10 years) on a vegetarian diet from birth; 40 OM children. No data on SES collected. | 3-day food diary, average daily energy intake, the percentage of energy from protein, fat, and carbohydrates, and vitamin intakes. | HT, WT. Serum CRP, calprotectin, total oxidant capacity (TOC), total antioxidant capacity (TAC), reduced (GSH), and oxidized (GSSG) glutathione; the oxidative stress index (OSI) and the GSH/GSSG ratio were calculated. | No difference in BMI and BMI z-scores between dietary groups; however, VG tended to have lower values. VG had significantly lower median values of TOC, GSH and GSSG as well as CRP, and higher TAC compared with OM. The OSI was significantly lower in VG. |
| Ambroszkiewicz et al. 2023. The IMC, Warsaw, Poland [73]. | Cross-sectional; data collection 2020-2021; from a group of patients seeking dietary counselling at the IMC. | 51 VG, (among the VG group there were 9.6% vegan children) age range 4–9 years); most of them on a vegetarian diet from birth; 25 OM children. No data on SES collected, PA assessed by questionnaire. | 3-day food diary; average daily dietary energy, protein, fiber, calcium, phosphorus, magnesium, vitamin D, and amino acid intakes were assessed in 61 (80%) of the studied children. | WT, HT; serum amino acids, 25-OH- D, PTH, bone metabolism markers (osteocalcin, CTX-I, osteoprotegerin, IGF-I), albumin, and prealbumin. | No difference in BMI between VG and OM; serum concentrations of 4 amino acids (valine, lysine, leucine, isoleucine) were 10–15% lower in VG than OM; serum differences in amino acid levels were less marked than dietary intake differences. VG had lower (but still normal) serum albumin levels; they also had higher levels of CTX-I (bone resorption marker) than OM. There was no significant difference in other bone metabolism markers or PTH levels between groups. |
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