Vegan Diets for Children: A Narrative Review of Position Papers Published by Relevant Associations
Abstract
:1. Introduction
2. Positions of the Relevant Associations Regarding Vegan Diets for Children
Professional Associations and Expert Group | Year of Publication | S/R/D | Quoted Position |
---|---|---|---|
American Dietetic Association [58] | 1997 | S | Appropriately planned vegetarian diets are healthful, are nutritionally adequate, and provide health benefits in the prevention and treatment of certain diseases. |
American Dietetic Association and Dietitians of Canada [46] | 2003 | S | Well-planned vegan and other types of vegetarian diets are appropriate for all stages of the life cycle, including during pregnancy, lactation, infancy, childhood, and adolescence. |
European Society for Paediatric Gastroenterology, Hepatology, and Nutrition [69] | 2008 | D | Infants and young children receiving a vegetarian diet should receive a sufficient amount (500 mL) of milk (breast milk or formula) and dairy products. Infants and young children should not receive a vegan diet. |
American Dietetic Association [45] | 2009 | S | Well-planned vegetarian diets are appropriate for individuals during all stages of the life cycle, including pregnancy, lactation, infancy, childhood, and adolescence, and for athletes. |
Dietitians of Canada [42,71] | 2010 | S | A well-planned vegan diet can meet all of these needs. It is safe and healthy for pregnant and breastfeeding women, babies, children, teenagers, and seniors. |
Ministry of Health of Slovenia [72] | 2010 | D | Vegan and macrobiotic foods are not suitable for children (of note: primarily related to infant diet). |
Ministry of Health of Slovenia [73] | 2010 | D | It is not recommended for children and adolescents to eat a completely vegan diet, where meat and meat products, milk and milk products, and eggs are completely excluded from the diet. A vegan diet can be harmful to a child’s development and health and can lead to health consequences. |
European Society for Paediatric Gastroenterology, Hepatology, and Nutrition [61] | 2011 | R | When a vegetarian diet is practiced, appropriate planning (taking into account recommended macro- and micronutrient intakes) and monitoring (growth, zinc, iron, vitamin B12, and vitamin D) should be undertaken by a health care professional (of note: their position refers for children aged 2–18 years). |
National Institute of Public Health of Slovenia [74] | 2011 | D | We do not recommend a vegan diet, where meat and meat products, milk and milk products, and eggs are excluded from meals. A vegan diet can be harmful to a child’s development and health and can lead to serious health problems, which is why, based on numerous studies, we do not recommend it. |
National Health and Medical Research Council of Australia [44] | 2013 | S | Appropriately planned vegetarian diets, including total vegetarian or vegan diets, are healthy and nutritionally adequate. Well-planned vegetarian diets are appropriate for individuals during all stages of the lifecycle. |
Dietitians of Canada [75,76] | 2014 | S | A healthy vegan diet can meet all your nutrient needs at any stage of life including when you are pregnant, breastfeeding, or for older adults. |
Extended Professional College for Paediatrics of Slovenia [67] | 2015 | D | The Extended Professional College for Paediatrics of Slovenia does not agree with the vegan diet for children and adolescents and does not support its introduction in kindergartens and schools. |
Portugal National Programme for the Promotion of Healthy Eating [41] | 2015 | S | When appropriately planned, vegetarian diets, including lacto-ovo vegetarian or vegan, are healthy and nutritionally adequate for all cycles of life, and they can be useful in prevention and treatment of some chronic diseases. |
Academy of Nutrition and Dietetics (before 2012 as American Dietetic Association) [43] | 2016 | S | It is the position of the Academy of Nutrition and Dietetics that appropriately planned vegetarian, including vegan, diets are healthful, nutritionally adequate, and may provide health benefits for the prevention and treatment of certain diseases. |
German Nutrition Society [77] | 2016 | D | With a pure plant-based diet, it is difficult or impossible to attain an adequate supply of some nutrients. The most critical nutrient is vitamin B12. The DGE does not recommend a vegan diet for pregnant women, lactating women, infants, children, or adolescents. |
Canadian Paediatric Society [78] | 2017 | S | Well-planned vegetarian diets (vegan diet included) can support pregnancy, breastfeeding and growth during infancy and childhood. |
Italian Society of Human Nutrition [39] | 2017 | S | Well-planned vegetarian diets (lacto-ovo vegetarian and vegan) that include a wide variety of plant foods, and a reliable source of vitamin B12, provide adequate nutrient intake. |
Italian Society of Preventive and Social Paediatrics, Italian Federation of Paediatricians, and Italian Society of Perinatal Medicine [79] | 2017 | D | A vegan diet should not be recommended for children because it lacks essential nutrients such as vitamin B12, DHA, iron, vitamin D, and calcium. Children following this diet should undergo careful monitoring of their growth and overall development. |
European Society for Paediatric Gastroenterology, Hepatology, and Nutrition [3] | 2017 | S | Vegan diets should only be used under appropriate medical or dietetic supervision and parents should understand the serious consequences of failing to follow advice regarding supplementation of the diet (of note: their position refers to the framework of complementary feeding). |
British Dietetic Association [38] | 2017 | S | Well-planned vegan diets can support healthy living in people of all ages. |
Finish Food Authority [80] | 2019 | S | A carefully composed vegan diet is also suitable for pregnant and breastfeeding women, children, and young people. A vegan diet should be complemented with nutrition supplements that contain vitamin B12 and iodine. |
Physicians Committee for Responsible Medicine [53,54] | 2019 | S | Vegan diets are appropriate, and they satisfy the nutrient needs and promote normal growth at all stages of the life cycle, including pregnancy and lactation, infancy, childhood, adolescence, older adulthood, and for athletes. |
German Society for Paediatric and Adolescent Medicine [47] | 2019 | S | The nutritional needs of growing children and adolescents can generally be met through a balanced, vegetable-based diet. Vitamin B12 should be supplemented in people of all age groups who follow a strict vegan diet. |
French Paediatric Hepatology, Gastroenterology and Nutrition Group [48] | 2019 | D | A vegan diet is not recommended for infants, children, and adolescents due to the risk of nutritional deficiencies that are inevitable in the absence of supplements. Vegan diets that exclude all animal products from the food register are not adapted to the human species. |
Royal Academy of Medicine of Belgium [51] | 2019 | D | The commission considers that the vegan diet is unsuitable and therefore not recommended for unborn children, children, and adolescents, as well as pregnant and breastfeeding women. |
Spanish Paediatric Association [63] | 2020 | R | A vegetarian or a vegan diet, as in any other kind of diet, needs to be carefully designed. After reviewing current evidence, even though following a vegetarian diet at any age does not necessarily mean it is unsafe, it is advisable for infant and young children to follow an omnivorous diet or, at least, an ovo-lacto-vegetarian diet. |
Extended Professional College for Paediatrics of Slovenia [66] | 2022 | D | ESPGHAN guidelines for paediatric nutrition advise against vegan and caution vegetarian diets for children and adolescents. |
British National Health Service [81] | 2022 | R | With good planning and an understanding of what makes up a healthy, balanced vegan diet, you can obtain all the nutrients your body needs. If you are bringing up your baby or child on a vegan diet, you need to ensure they obtain a wide variety of foods to provide the energy and vitamins they need for growth. |
Dietitians Association of Australia [82] | 2022 | S | A varied and well-balanced vegetarian diet (vegan diet included) can supply all the nutrients needed for good health. Children need enough nutrients to help them grow and develop. Parents and carers of children following a vegetarian diet should take special care to ensure they are getting enough nutrition to thrive. |
Norwegian Directorate of Health [62] | 2022 | S | With knowledge about diet and proper planning, it is possible to create a balanced and nutritious plant-based diet for infants (of note: their position refers to infant from 0 to 1 year of age). |
Physicians Committee for Responsible Medicine [54,83] | 2023 | S | A plant-based diet is a healthful choice at every stage of life, including pregnancy and breastfeeding. |
Kaiser Permanente [84] | 2023 | S | A well-planned vegetarian or vegan diet can be healthy for children and teens. |
3. Studies on Vegan, Vegetarian, and/or Omnivorous Diets in Children and Adolescents
4. Additional Considerations
5. Strengths and Limitation
6. Future Recommendations in the Area
7. Conclusions
Author Contributions
Funding
Institutional Review Board Statement
Informed Consent Statement
Data Availability Statement
Conflicts of Interest
References
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Country of the Study | Year of Publication/Years of Recruitment | Study Design | Number of Children | Age (Years) | Observed Parameters | Important Results | Important Features |
---|---|---|---|---|---|---|---|
Czech Republic [85] | 2023/2019–2021 | Cross-sectional | VG children = 91, VN children = 75, OM children = 52 | 0.5–18.5 | Iodine status and thyroid function | No difference in thyroid function; the UIC was highest in the OMs; all groups exceeded the WHO cut-off; RDI was seldom met in all groups; higher number of VNs with lower BMIs. | VNs recruited through VN-focused web pages and OMs recruited by general practitioners. |
Czech Republic [86] | 2022/2019–2021 | Cross-sectional | VG children = 79, VN children = 69, OM children = 52 | 0.5–18.5 | Vitamin B12 intake and serum status | Life-threatening or severe laboratory-confirmed vitamin B12 deficiency was not detected among VNs; VNs were well supplemented. | VNs recruited through VN-focused web pages, OMs recruited by general practitioners. |
Canada [87] | 2022/2008–2019 | Longitudinal cohort | VG children = 248, (VN children = 25), OM children = 8659 | 0.5–10 | Anthropometric measurements (growth status), serum lipid, iron, and vitamin D levels | No difference in growth or biochemical measures; more VGs were underweight (2.9% absolute diff.) and more OMs were overweight (3.1% absolute diff.) and obese (0.9% absolute diff.); more families of OM children had higher incomes (43% vs. 27%). | VG group has 10% VNs and the impact on the results was not clear; no dietary intake assessment; clinical relevance of the small absolute diff. in body mass was not clear. |
Finland [97] | 2021/2017 | Cross-sectional | VG children = 10, VN children = 6, OM children = 24 | 1–7 | Metabolic and nutritional status | Diet: VNs had higher intakes of fibre, LA, ALA, MUFA, PUFA, vitamin B12 (with suppl.), folate, vitamin K, magnesium, and iron (without suppl.); VNs had lower intakes of protein, SFAs, cholesterol, and EPA/DHA and similar vitamin D (with and without suppl.), calcium, and iodine intake (with suppl.); blood: VNs had higher folate and ALA levels and lower total vitamin D, lipoprotein, and DHA levels. | The comparison included 4 times fewer VNs (only 6) than OMs; OMs consumed unusually low amounts of fish and fish dishes to obtain 156 mg of EPA/DHA without suppl. (2 g/day), vitamin B12 intake (without suppl.) was similar between VNs and OMs (3.2 µg/day vs. 3.5 µg/day). |
Poland [98] | 2021/2014–2016 | Cross-sectional | VG children = 63, VN children = 52, OM children = 72 | 5–10 | Body composition, CV, and nutritional risk | More VN children had vitamin B12 deficiency but not in the supplemented group; all groups had some prevalence of B12 deficiency anaemia and depleted iron stores, with more VNs; VNs had 2 times higher fibre and 1.8 times higher magnesium intake but lower protein, total fat, SFA, cholesterol, MUFA, and calcium intake; both groups had inadequate vitamin D intake but within the reference mean D(25)OH level; OMs had a higher prevalence of abnormal and borderline high LDL-cholesterol, and higher hs-CRP levels; VNs were lighter (BMI), shorter (by 3 cm), and had lower fat mass index (but not lean mass index), with 4–6% lower bone mineral content. | VNs recruited through VN-focused web pages, OMs recruited by asking VNs and VGs to invite a friend. |
Norway/Spain [106] | 2021/2013–2015 | Cross-sectional | OM children (Norway) = 52, OM children (Spain) = 207 | 6–13 | Dietary intake and lipid levels | Inadequate intake of fibre, MUFA, and PUFA and exceeded intake of SFAs; lipid profiles of both non-FH cohorts were within the recommended levels. | No BMI status reported. |
Germany [109] | 2021/2017–2021 | Cross-sectional | VG children = 149, VN children = 115, OM children = 137 | 6–18 | Dietary intake, anthropometric measurements, and nutritional status | VN diet can provide a comparable dietary intake and support normal growth; VNs: higher intake of carbohydrates, PUFA, fibre, magnesium, iron, vitamin C, folate, and vitamin B1; OMs: higher intake of protein, free sugar, total fat, SFA, MUFA, vitamin B2, calcium; no diff. in serum: Hb, vitamin B2, 25 (OHD, folate, and methylmalonic acid. | Ferritin levels were higher in OMs, but both group’s statuses were within the reference range; 25(OH)D and vitamin B2 intake was low in a notable proportion of individuals, independent of diet; more OM children belonged to families with higher incomes (81% vs. 62%). |
Germany [107] | 2019/2016–2018 | Cross-sectional | VG children = 127, VN children = 139, OM children = 164 | 1–3 | Dietary intake and anthropometric measurements | No diff. in energy and macronutrient intake nor anthropometric measurements; higher % of OMs were overweight or at possible risk of overweight; 3.6% of VNs were classified as overweight; VN infants were breastfed 43% longer. | VNs consumed (basic model) 46% less added sugar, 13% less protein (but 2.4 times higher than are the reference), and 48% more fibre than OMs; parents’ primary motive for VN diets was ethical reasons (68%). |
Germany [108] | 2019/2016–2018 | Cross-sectional | VG children = 127, VN children = 139, OM children = 164 | 1–3 | Selenium intake differences | All groups met the selenium requirements (17 µg/day); more VNs fell below the EFSA reference (36% vs. 16%). | Clinical relevance of lower selenium intake in VNs was uncertain and the risk of inadequate intake was generally low; harmonized tolerable upper intake level (60 µg/day) was not reached by OMs but was reached by 9% of VNs. |
USA [111] | 2021/2001–2016 | Cross-sectional | OM children = 9848 | 1–6 | Nutrient intake | Proportion of children with inadequate intake: fibre (99%), DHA (97–99%), vitamin D (87%), vitamin E (69%), potassium (58%), and calcium (17%); exceeded intake of sodium (nearly 100%). | The proportion of children with inadequate intake of vitamin D, potassium, and calcium increased with age; no BMI status reported. |
USA [115] | 2021/2016–2017 | Prospective randomized 1 year intervention | VN = 25, AHA = 27, MED = 28 | 9–18 | Cardiovascular risk and dietary intake change | The VN and MED groups showed greater reductions in body mass, total cholesterol, LDL cholesterol, glucose, and amyeloperoxidase; the VN group consumed lower amounts of protein, total cholesterol, SFAs and trans fats, cholesterol, sodium, vitamin D, and vitamin B12, but higher amounts of carbohydrates, fibre, and potassium compared to the AHA or MED groups. | The nutritional adequacy of all three diets was not reported. |
USA [114] | 2015/2013 | Prospective randomized 4-week intervention | VG children = 14, AHA children = 14 | 9–18 | Cardiovascular risk and dietary intake change | Both dietary groups (VN = WFPB and OM = AHA) showed favourable effects, but the VN dietary group fared better in terms of decreased BMI/fat, systolic blood pressure, total and LDL-cholesterol, hs-CRP, insulin, and waist circumference; both groups showed improvements (less SFA and sodium, more fibre), but still had inadequate intake of vitamin B12, vitamin D, calcium, and iron. | The intervention period was short; children were mostly in obese (71% on a VN diet and 86% on an OM diet). |
USA [128] | 1989/1980–1983 | Cross-sectional | VG children = 64, VN children = 288, OM children = 28 | 4 months to 10 years | Growth | VG children had an average height within 0.7 cm and body mass of 1.1 kg of the reference; authors: children on VN diets can achieve adequate growth. | No further differentiation in the obtained results between VGs and VNs; a small proportion of children on the OM diet (3%); the obtained data are 40 years old. |
Slovenia [116,117,118,119] | 2021–2022/2017 | Cross-sectional | OM children = 468 | 10–17 | Dietary intake and BMI status | Inadequate intake of fibre (19.5 g/day, 91% when the cut-off value was 30 g/day), vitamin B12 (5.4 µg/day, 47% when the cut-off was <4 µg/day), vitamin D (2.7 µg/day, 100% when the cut-off was 20 µg/day), folate (290 µg/day, 88% when the cut-off was <400 µg/day), iron (17 mg/day, 44% when the cut-off was 12 µg/day); 44% were overweight or obese. | Females: inadequate intake of iron (73%) and vitamin B12 (52%). |
Slovenia [123] | 2019/2014 | Cross-sectional | OM children = 343 | 14–16 | Eating habits and micronutrient intake | Inadequate intake: only 30% for fruits, vegetables, and fish, 40% for milk/dairy products, and 50% for cereals/cereals products; exceeded intake: 320% for meat/meat products, 453% for sweet/savoury snacks); micronutrient intake: exceeded sodium intake by 2–3 times. | 69% of adolescent used dietary supplements; for micronutrient intake, the authors used a less precise one-time 24 h recall; no BMI status reported. |
Slovenia [121,122] | 2009, 2012/2003–2005 | Cross-sectional | OM children = 2224/2485 | 15–16 | Dietary (macro- and micronutrients) intake | Below the recommendations: fibre density (only girls), PUFA, folate, fluoride, calcium, and vitamin D (4 µg/day); exceeded intake of free sugars (16% of E), SFAs (13% of E), and sodium (>4000 mg/day). | The dietary habits of Slovenian adolescents were less than optimal. They exceeded the reference intake values for free sugars, salt, and SFAs and consumed below the reference intake for PUFA, water, and several micronutrients. Adequate iodine intake was associated with excess salt intake (150% above the recommended limit). |
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Jakše, B.; Fras, Z.; Fidler Mis, N. Vegan Diets for Children: A Narrative Review of Position Papers Published by Relevant Associations. Nutrients 2023, 15, 4715. https://doi.org/10.3390/nu15224715
Jakše B, Fras Z, Fidler Mis N. Vegan Diets for Children: A Narrative Review of Position Papers Published by Relevant Associations. Nutrients. 2023; 15(22):4715. https://doi.org/10.3390/nu15224715
Chicago/Turabian StyleJakše, Boštjan, Zlatko Fras, and Nataša Fidler Mis. 2023. "Vegan Diets for Children: A Narrative Review of Position Papers Published by Relevant Associations" Nutrients 15, no. 22: 4715. https://doi.org/10.3390/nu15224715
APA StyleJakše, B., Fras, Z., & Fidler Mis, N. (2023). Vegan Diets for Children: A Narrative Review of Position Papers Published by Relevant Associations. Nutrients, 15(22), 4715. https://doi.org/10.3390/nu15224715