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. 2018 Oct 31;32(1):38–69. doi: 10.1017/S0954422418000161

Child and adolescent nutrient intakes from current national dietary surveys of European populations

Holly L Rippin 1,*, Jayne Hutchinson 1, Jo Jewell 2, Joao J Breda 2, Janet E Cade 1
PMCID: PMC6536833  PMID: 30388967

Abstract

The WHO encourages national diet survey (NDS) implementation to obtain relevant data to inform policies addressing all forms of malnutrition, which remains a pressing issue throughout Europe. This paper provides an up-to-date review on energy, macro- and selected micronutrient intakes in children across WHO Europe using the latest available NDS intakes. It assesses these against WHO recommended nutrient intakes (RNI) to highlight vulnerable groups and areas of concern. Dietary survey information was gathered by Internet searches, contacting survey authors and nutrition experts. Survey characteristics, energy and nutrient intakes were extracted and weighted means calculated and presented by region. Child energy and nutrient intakes were extracted from twenty-one NDS across a third (n 18) of the fifty-three WHO Europe countries. Of these, 38 % (n 6) reported intakes by socio-economic group, but by various indicators. Energy and macronutrients, where boys and older children had higher intakes, were more widely reported than micronutrients. Most countries met under half of the WHO RNI for nutrients reported in their NDS. Micronutrient attainment was higher than macronutrients, but worst in girls and older children. Only a third, mainly Western, WHO European member states provided published data on child nutrient intakes. Gaps in provision mean that dietary inadequacies may go unidentified, preventing evidence-based policy formation. WHO RNI attainment was poor, particularly in girls and older children. Inconsistent age groups, dietary methodologies, nutrient composition databases and under-reporting hinder inter-country comparisons. Future efforts should encourage countries to conduct NDS in a standardised format by age and sociodemographic variables.

Key words: National diet surveys, WHO European region, Child nutrition, Energy intakes, Macronutrient intakes, Micronutrient intakes, Recommended nutrient intakes

Introduction

The burden of malnutrition in the form of overweight and obesity, nutrient deficiency and preventable diet-related non-communicable diseases (NCD) is significant and worsening worldwide(1,2). In particular, unhealthy diet is one of the four major behavioural risk factors for NCD in all WHO regions(3), with the European region proportionately suffering the greatest NCD burden. In Europe, the four most common NCD account for 77 % of disease and almost 86 % premature mortality(1), and overweight and obesity affect a third of children aged 11 years(4). Childhood obesity has negative health impacts and is associated with educational underachievement, low self-esteem and increased obesity risk in adulthood(5).

National diet surveys (NDS) have an important role in assessing dietary patterns and intakes in the whole population and informing relevant policy decisions; the WHO European Food & Nutrition Action Plan(1) explicitly encourages member states to ‘strengthen and expand nationally representative diet and nutrition surveys’. However, NDS provision across Europe is inconsistent. A recent review found that less than two-thirds (thirty-four out of fifty-three) of WHO Europe countries have nationally representative NDS, and that the majority of gaps lie in Central and Eastern European countries (CEEC)(6). This is concerning, as nutrition policies in these countries may therefore lack an appropriate evidence base.

Novaković et al.(7) examined selected micronutrient intakes in CEEC compared with other European countries and found that CEEC lacked intake data across all ages, particularly in children. The aforementioned recent review by Rippin et al.(6) showed that under a third (seventeen out of fifty-three) of European countries reported energy and nutrient intakes for children aged<18 years from NDS conducted post-2000(6). This finding is not surprising, as data of this kind are limited. The Global Dietary Database houses information on food and nutrient consumption levels before 2010 in countries globally, but has limited nutrient data, includes some regional rather than national surveys and does not currently cover children(8). Merten et al.(9) reviewed methodological characteristics and heterogeneity in European NDS, but also included regional child surveys. However, the surveys were limited to European Union member states, only included surveys employing certain dietary assessment methods and did not discuss nutrient intakes.

Despite this lack of data, nutrition and health surveys remain the main source of information on dietary risk factors. For example, a systematic analysis of disease risk in twenty-one regions worldwide between 1990 and 2010 was conducted based on information collated from NDS(10). Such data are also used to inform policy and identify food and nutrients of most concern. For example, Volatier et al.(11) used NDS to compile a reference list of indicator foods to be used for the validation of nutrient profiling schemes – a policy tool to categorise foods according to their nutritional composition to aid disease prevention and health promotion. These examples demonstrate the importance and range of use that NDS can have in monitoring population diet quality and health, and gathering information on which to base disease–risk prevention policies and address childhood obesity. NDS can help monitor NCD risk factors and malnutrition, identify specific areas of concern, highlight inequalities and evaluate policy impact, thereby ultimately contributing to the promotion of best practice for nutritional health across the region(1).

A comprehensive, up-to-date review of total nutrient intakes across different European child populations is therefore needed, which could identify where in Europe there is a need to improve diets and whether inequalities exist. In a manner consistent with that published for adults(12), the present review aims to examine macro- and selected micronutrient intakes in children across the WHO European region via the latest NDS for which nutrient intake data are available, with reference to age-appropriate WHO recommended nutrient intakes (RNI).

Methods

Identifying national diet surveys

The methods for identifying and accessing NDS have been reported(6). Briefly, authors of national surveys within the WHO European region were identified using listed contact names and other information from two main reports of NDS(13,14). Where no response was obtained from authors, further general Internet searches were performed on organisations specialising in nutrition to find other potentially useful contact details. Additionally, country responses to WHO Global Nutrition Policy Review 2017 questionnaires were mined to obtain relevant references. Contacts identified were asked to complete a questionnaire to provide information on nationally representative dietary surveys conducted on adults or children at an individual level since 1990, including links or references to relevant reports. For countries without contact details, a systematic database search was performed across Web of Science, MEDLINE and Scopus for nationally representative dietary surveys of adults and children that collected data at an individual level from 1990 to June 2016. Papers returned were screened for relevance according to the criteria in Table 1.

Table 1.

Survey inclusion and exclusion criteria

Included Excluded
Surveys conducted at an individual level Surveys collected at group, i.e. household, level
Nationally representative surveys Non-nationally representative, regional-only surveys
Results of surveys reported by published and unpublished reports, academic journals and websites Surveys with data collected before 1990
Surveys that included individuals>2 years Surveys with samples exclusively<2 years
Surveys based on whole diet rather than specific food groups Surveys with incomplete food group coverage
Surveys with small sample sizes (n<200)

We found 109(6) (and have subsequently added recent releases to make 110) nationally representative surveys that collected data on whole diets at an individual level since 1990 across thirty-four of the fifty-three countries in WHO Europe; sixty-nine included children, of which forty-nine were conducted since 2000. Further details of all surveys found are presented in Rippin et al.(6).

Data extracted

Where available, estimated energy and nutrient intakes by sex and age group were extracted from the latest NDS collected after 2000. For NDS that provided results including and excluding supplements, the latter was used; where not specified, it was assumed that intakes excluded supplements. For children this was extracted from twenty-one surveys from eighteen countries; the Netherlands had two and Ireland three surveys, which covered different child age groups. Mean values were reported in all cases except Dutch children aged 7–8 years, which used medians – these were extracted and used instead. The eighteen countries were grouped into regions – Western, Northern and Central and Eastern Europe. For some countries (France, Latvia, the Netherlands and Spain), more recent surveys had been conducted, but intake data were not yet available. Energy intakes reported in kcal were converted to MJ for consistency across studies. Appendix 1 and Appendix 2 list the availability of selected nutrients reported from the latest surveys collected after 2000.

All macronutrients reported by the twenty-one surveys were included in the data extraction (see Table 2), but micronutrients extracted (see Table 3) were limited to those explicitly mentioned in the WHO European Food and Nutrition Action Plan(1) as being currently important to population health in the region. See Appendix 1 and Appendix 2 for all nutrient intakes extracted.

Table 2.

Macronutrients of interest in dietary surveys and corresponding WHO recommended nutrient intake (RNI)

WHO RNI format Lower RNI Upper RNI Single value
Energy (MJ and kcal) N/A N/A N/A N/A
Carbohydrates (g and %E) Target 55 %E 75 %E
Sugars (g) N/A N/A N/A N/A
Sucrose (g) Maximum 5 %E 10 %E
Fibre (g) Target 25 g
Total fat (g) Maximum 15 %E 30 %E
Saturated fats (g) Maximum 10 %E
MUFA (g) N/A N/A N/A N/A
PUFA (g) Target 6 %E 10 %E
TFA (g) Maximum <1 %E
Protein (g) Target 10 %E 15 %E
n-3 Fatty acids (g) Target 1 %E 2 %E
n-6 Fatty acids (g) Target 5 %E 8 %E

N/A, not applicable; %E, percentage energy; TFA, trans-fatty acids.

Table 3.

Micronutrients of interest in dietary surveys and corresponding WHO recommended nutrient intake (RNI)

RNI format 1–3 years 4–6 years 7–9 years 10–18 years
Total folate (µg) Minimum 100 µg 200 µg 300 µg 400 µg
Vitamin B12 (µg) Minimum 0·9 µg 1·2 µg 1·8 µg 2·4 µg
Vitamin D (µg) Target 5 µg 5 µg 5 µg 5 µg
Ca (mg) Minimum 500 mg 600 mg 700 mg 1300 mg
K (mg)* Minimum/target 800 mg 1100 mg 2000 mg 3100–3500 mg
Na (mg)* Maximum 500 mg 700 mg 1200 mg 1600 mg
Fe (mg)* Minimum 6·9 mg 6·1 mg 8·7 mg 11·3–14·8 mg
Iodine (µg) Minimum 90 mg 90 mg 120 mg 150 mg
Zn (mg) Minimum 4·1 mg 4·8 mg 5·6 mg 7·2–8·6 mg
*

RNI are derived from the WHO except Fe, K and Na, where UK RNI have been used instead, as WHO Fe RNI values are based on different bioavailabilities and K and Na values are downweighted based on energy requirements for children relative to adults.

WHO RNI were used to assess intake adequacy in the population majority and highlight areas of concern in the absence of raw NDS data from sufficient countries to determine the prevalence of inadequacy in relation to the percentage of the population below the estimated average requirements. The exception was energy, where RNI changed in yearly increments, so were not sufficiently compatible with survey age groupings(1520). Additionally, WHO RNI for Fe are given for different bioavailabilities, so UK Reference Nutrient Intakes (RNI) were used instead(21). UK RNI were also used for K and Na, as WHO RNI recommend downweighting values based on energy requirements for children relative to adults. The RNI for MUFA is calculated by the difference between total fat and the sum of SFA, PUFA and trans-fatty acids (TFA), so has not been included. The WHO RNI for free sugars(19) has been adopted as the RNI for added sugars, as no WHO RNI exists for added sugars, yet the majority of surveys that reported sugars used the added rather than free sugar definition. The added sugars definition is similar but more restrictive to that of free sugars, meaning that free sugar intake would not be overestimated. Depending on the nutrient, RNI were variously maximum, minimum or target amounts (see Tables 2 and 3).

Energy and selected nutrient intakes reported by age group and sex in these latest surveys collected after 2000 were graphed. To harmonise the data where possible, units of measurement were converted to common standard units. Omega-3 (n-3) and omega-6 (n-6) fatty acids were reported variously in surveys, including n-3, n-6, linoleic acid and α-linolenic acid in g/d and percentage energy (%E) and EPA+DHA in mg/d. These were converted to g and %E and grouped into n-3 and n-6 fatty acids for clarity. ‘Added sugars’ is used as a proxy term for sucrose, as the countries reporting this nutrient typically referred to it as ‘added sugars’ or did not specify.

Additionally, estimated mean intakes by sex for two age groups split roughly by those aged<10 years and≥10 years (to 18 years) were determined for each country, and also for European regions and Europe overall. This cut-off was chosen because 10 years was a common boundary for RNI split by age. Age ranges for reported and extracted means that spanned the 10-year cut-off contained a larger proportion of≥10-year-olds in all cases, so were allocated to that group. This occurred in seven countries (Cyprus, Ireland, Latvia, the Netherlands, Spain, Turkey and the UK), where only Latvia included children aged<9 years (7–16 years). The UK 4- to 10-year age group was included in the<10 years group. Some countries did not separate by sex in the youngest ages – in these instances the same mean intake was used for both girls and boys. Where mean intakes were reported by a country for more than one age group<10 years, or more than one age group≥10 years, the numbers of children/adolescents surveyed in the NDS in each age group were used to weight the reported means to produce estimated mean intakes for those aged<10 years and≥10 years. For instance, mean intakes for Belgium were reported and extracted for 3- to 5-year-olds, 6- to 9-year-olds, 10- to 13-year-olds and 14- to 17-year-olds; the mean intake reported for boys aged 3–5 years was multiplied by the number of boys surveyed for that age group, and added to a similar calculation for the 6- to 9-year-olds; the sum of these was then divided by the total number of boys aged<10 years to produce an estimated mean for<10 years for Belgium. Where countries had multiple NDS (Ireland, the Netherlands), age ranges ran concurrently rather than overlapping, so the NDS were grouped and used to estimate the mean intakes for those aged<10 years and≥10 years as described above. The mean intakes for each European region and Europe overall were estimated by multiplying the<10 years or≥10 years means for each country and sex by the national population aged<19 years for each country(2224). The resulting value for each country was summed and then divided by the total sum of the national child populations in each European region, then Europe as a whole. The same population values were used for both the<10 years and≥10 years groups, assuming similar population ratios. These population weightings made the estimated means roughly generalisable to the European regions and Europe as a whole.

Characteristics of the twenty-one surveys were also extracted and tabled; these were: country name, survey name, year of survey (data collection), source, sample size, age range, dietary methodology and the nutrient reference database underpinning the survey. The number and percentage of WHO RNI not met were recorded for the nutrients and sex/age groups for which they were reported. Where reported, surveys presenting nutrient intakes by socio-economic group based on social class, income (continuous or grouped), occupation and education level were also noted.

Results

Data extracted

The scope of NDS coverage across Europe has previously been documented(6). Energy and nutrient intakes (excluding supplements) for children aged ≤18 years were extracted from twenty-one surveys across eighteen countries from three regions: two of five Northern European countries (Denmark, Norway); ten of seventeen Western European countries (Austria, Belgium, France, Germany, Ireland, Italy, The Netherlands, Portugal, Spain, UK) and six of thirty-one CEEC (Bulgaria, Cyprus, Estonia, Latvia, Slovenia, Turkey). Table 4 shows the characteristics of these surveys. Child energy and nutrient intakes could not be extracted for 66 % (thirty-five) of European countries for various reasons, from lack of availability to incompatible age-group structure. Nineteen of these countries, mainly CEEC, had no identifiable nationally representative survey, making up over a third of WHO Europe countries. The Andorran NDS surveyed children, but the lowest age group (12–24 years) spanned adults and children, so intake data were not included in the results or graphs.

Table 4.

National diet surveys across countries in WHO Europe 2000–2016 with reported nutrient intakes for children and adolescents

Country Survey name Survey year Source* Sample size Sample age (years) Dietary methodology Nutrient reference database Nutrient intakes by SEG, Y/N WHO RNI not met Reference
Austria Austrian Nutrition Report 2012 (OSES) 2010–2012 2 1002 7–14; 18–80 3 d diary (consecutive) (children); 2×24 h recall (adults). Face-to-face and telephone interview Analysis run with software ‘(nut.s) science’ based on Bundeslebensmittelschlüssel 3·01/Goldberg cut-offs for data cleaning N 69 % (75/108) (54)
Belgium Belgium National Food Consumption Survey (BNFCS) 2014 2014–2015 1 and 2 3146 3–64 2×24 h recall. Face-to-face electronic interview The NIMS Belgian Table of Food Composition (Nubel); Dutch Food Composition Database (NEVO) N 68 % (73/108) (55,56)
Bulgaria National Survey on Nutrition of Infants and Children Under 5 and Family Child Rearing 2007 2007 2 1723 0–5 2×24 h recall via mother (non-consecutive). Face-to-face interview with the mother FCTBL_BG (Food Composition Tables – Bulgaria) N 60 % (30/50) (5759)
Cyprus A study of the dietary intake of Cypriot children and adolescents aged 6–18 years 2009–2010 2 1414 6–18 3 d food record (consecutive including one weekend). Self-completed USDA Nutrient Database for Standard Reference and Research N 75 % (45/60) (60)
Denmark Danish National Survey of Diet and Physical Activity (DANSDA) 2011–2013 2011–2013 2 3946 4–75 7 d diary (consecutive). Self-completed (by mother/carer 4–15 years) Danish Food Composition Databank N 60 % (41/68) (61)
Estonia National Dietary Survey 2014–2015 1 4906 4 months–74 years 2×24 h recall (age≥10 years); 2×24 h food diary (age<10 years); FFQ (age >2 years). Face-to-face electronic interview Y – income, poverty threshold, education 64 % (84/132) (62,63)
France Individual National Food Consumption Survey (INCA3) 2014–2015 2 5855 0–79 3×24 h recalls (15+ years); 3 d diary (0–14 years). Non-consecutive including weekend; telephone interview Food Composition Database CIQUAL of Anses Y – education, parent occupational category 82 % (56/68) (64)
Germany German National Nutrition Survey (Nationale Verzehrstudie) II (NVSII) 2005–2007 1 and 3 15 371 14–80 DISHES diet history interview, 24 h recall, diet weighing diary (2×4 d). Face-to-face electronic interview Bundeslebensmittelschlüssel (BLS) N 54 % (14/26) (65,66)
Ireland National Pre-school Nutrition Survey 2010–2011 1 500 1–4 4 d weighed food diary (consecutive). Self-completed (by carer) McCance and Widdowson’s The Composition of Foods, 5th and 6th editions Y – social class and education 57 % (110/192) (67,68)
National Teens’ Food Survey 2005–2006 1 441 13–17 7 d semi-weighed food diary (consecutive). Self-completed McCance and Widdowson’s The Composition of Foods, 5th and 6th editions Y – social class and education (6971)
National Children’s Food Survey 2003–2004 1 594 5–12 7 d weighed food diary (consecutive). Self-completed McCance and Widdowson’s The Composition of Foods, 5th and 6th editions Y – social class and education (7072)
Italy Third Italian National Food Consumption Survey INRAN-SCAI 2005–2006 2005–2006 2 3323 0·1–97·7 3 d diary (consecutive). Self-completed Banca Dati di Composizione degli Alimenti N 65 % (42/72) (73)
Latvia Latvian National Food Consumption Survey 2007–2009 2008 1 1949 7–64 2×24 h recall, FFQ. Face-to-face interview Latvian National Food Composition Data Base 2009 N 100 % (2/2) (74)
Netherlands Dutch National Food Consumption Survey 2007–2010 (DNFCS 2007–2010) 2007–2010 1 and 2 3819 7–69 2×24 h recalls. Telephone (adults)/face-to-face (children) interview Dutch Food Composition Database (NEVO) Y – education 51 % (75/148) (7577)
Dutch National Food Consumption Survey – young children (DNFCS 2008) 2005–2006 1 1279 2–6 2 d diary (non-consecutive). Self-completed (by adult) Dutch Food Composition Database (NEVO) N (78)
Norway UNGKOST 3 2015–2016 1 1721 4–13 4 d online diary plus FFQ (consecutive). Self-completed via web Norwegian Food Composition Tables Y – parental education 70 % (59/84) (79,80)
Portugal National Food and Physical Activity Survey (IAN-AF) 2015–2016 4 4221 3 months–84 years 2×24 h recall (non-consecutive) and FPQ (electronic interview). 2 d food diary for children<10 years. Face-to-face electronic interview Portuguese Food Composition Table (INSA) N 61 % (39/64) (81,82)
Slovenia Dietary Intake of Macro- and Micronutrients in Slovenian Adolescents 2012 2 2224 15–16 FFQ German Bundeslebensmittelschlüssel (BLS) 3·02 N 44 % (15/34) (83)
Spain ANIBES Study 2013 2 2285 9–75 3 d diary + 24 h recall (consecutive). Face-to-face, telephone (interview), tablet and camera (self-report) Tablas de Composición de Alimentos, 15th edition N 67 % (16/24) (8486)
Turkey Turkey Nutrition and Health Survey 2010 (TNHS) 2010 2 14 248 0–100 24 h recall, FFQ. Face-to-face interview BEBS Nutritional Information System Software; Turkish Food Composition Database N 68 % (116/170) (87,88)
UK National Diet and Nutrition Survey Rolling Programme (NDNS RP 2008–2012) 2008–2012 2 6828 1·5–94 4 d diary (consecutive). Self-completed (by carer 1·5–11 years) McCance and Widdowson’s The Composition of Foods integrated dataset Y – income 74 % (80/108) (89)

SEG, socio-economic group; Y, yes; N, no; RNI, recommended nutrient intake; USDA, United States Department of Agriculture; FPQ, Food preference questionnaire.

*

1=email contacts; 2=general Internet searches; 3=Micha et al.(14); 4=WHO Global Nutrition Policy Review 2017 extracted information.

Countries that have reported nutrient intakes by SEG in addition to age and sex.

The right values in parentheses provide the number of RNI not met by each age/sex group out of a total number of RNI for age/sex group for each nutrient reported by that country. The left value is this as a percentage.

All twenty-one NDS that reported nutrient intakes included energy; however, Latvia reported no other macronutrients. The majority (n 20) reported protein, carbohydrate and fat intakes and most reported fibre intakes (n 19) (see Table 5). Most NDS included intake data on saturated fats (n 19), and MUFA and PUFA (n 18). However, less than half (n 7) NDS included TFA intakes. Most NDS (n 16) included either total or added sugars/sucrose; however, six NDS included neither. Just over half the countries included either n-3 (n 7) or n-6 (n 7) fatty acid intakes in some form; six NDS included both.

Table 5.

Estimated means for<10 years and≥10 years by country and region for macronutrients in twenty-one national dietary surveys in the WHO Europe region*

Country Energy (MJ) Protein (g) CHO (g) Sugars (g) Sucrose (g) Fibre (g) Total fat (g) Saturated fats (g) MUFA (g) PUFA (g) TFA (g) n-3 (g) n-6 (g)
Bulgaria (1–4 years) National Survey on Nutrition of Infants and Children Under 5 Years and Family Child Rearing 2007
Girls<10 years 5·8 47 175 31 13·1 59 15 11 9·4
Boys<10 years 6·1 49 175 31 13·1 59 15 11 9·4
Girls≥10 years
Boys≥10 years
Cyprus (6–8·9 years; 9–18·9 years) A study of the dietary intake of Cypriot children and adolescents aged 6–18 years 2009–2010
Girls<10 years 7·6 73 223 14·6 69 28 30 9·7
Boys<10 years 7·8 75 226 14·8 72 29 31 10·3
Girls≥10 years 7·5 73 207 14·1 73 28 33 10·6
Boys≥10 years 8·5 88 225 14·9 85 33 38 12·7
Estonia (2–9 years; 10–17 years) National Dietary Survey 2014–2015
Girls<10 years 56 27 21 8·7 0·5 1·3 6·7
Boys<10 years 61 30 24 9·9 0·6 1·4 7·6
Girls≥10 years 6·6 55 205 52 14·3 62 26 21 9·9 0·4 1·4 7·8
Boys≥10 years 8·8 78 269 63 18·2 83 34 29 13·7 0·6 2·2 10·8
Latvia (7–16 years) Latvian National Food Consumption Survey 2007–2009
Girls<10 years
Boys<10 years
Girls≥10 years 6·9
Boys≥10 years 8·2
Slovenia (15–16 years) Dietary Intake of Macro- and Micronutrients in Slovenian Adolescents 2012
Girls<10 years
Boys<10 years
Girls≥10 years 9·7 86 379 195 110 31 82 35 29 17·0
Boys≥10 years 12·7 96 370 170 103 28 82 36 30 16·0
Turkey (2–8 years; 9–18 years) Turkey Nutrition and Health Survey 2010 (TNHS)
Girls<10 years 5·3 38 158 12·5 51 17 17 13·4 1·0 12·4
Boys<10 years 5·5 41 163 12·9 54 19 18 14·3 1·0 13·3
Girls≥10 years 7·1 50 220 18·7 66 21 22 17·9 1·2 16·6
Boys≥10 years 8·3 61 257 20·6 76 26 25 19·8 1·4 18·3
CEEC mean girls<10 years 5·3 39 159 31 56 13 52 17 16 13 0·5 1·0 12·3
CEEC mean boys<10 years 5·6 42 164 31 61 13 55 19 17 14 0·6 1·0 13·2
CEEC mean girls≥10 years 7·1 51 222 195 87 19 66 22 22 18 0·4 1·2 16·5
CEEC mean boys≥10 years 8·4 62 258 170 87 21 76 26 26 20 0·6 1·4 18·2
Denmark (4–9 years; 10–17 years) Danish National Survey of Diet and Physical Activity (DANSDA) 2011–2013
Girls<10 years 7·7 64 220 46 19·0 73 29 26 11·0 1·2
Boys<10 years 8·5 71 243 50 21·0 80 32 28 13·0 1·3
Girls≥10 years 7·8 67 222 53 17·0 73 30 26 11·0 1·1
Boys≥10 years 9·9 90 277 67 20·0 94 38 34 14·0 1·4
Norway (4–9 years; 13 years) UNGKOST 3 2015–2016
Girls<10 years 6·4 59 189 43 14·6 56 24 19 8·6
Boys<10 years 7·1 67 207 44 16·6 62 26 21 9·2
Girls≥10 years 7·4 68 219 60 15·0 66 27 23 10·0
Boys≥10 years 8·6 83 247 64 17·0 76 31 27 11·0
North mean girls<10 years 7·1 61 205 44 17 65 26 23 10 1·2
North mean boys<10 years 7·8 69 225 47 19 71 29 25 11 1·3
North mean girls≥10 years 7·6 67 221 56 16 70 29 25 11 1·1
North mean boys≥10 years 9·3 87 262 66 19 85 35 31 13 1·4
Austria (7–9 years, 10–14 years) Austrian Nutrition Report (OSES) 2010–2012
Girls<10 years 8·0 62 248 53 17·0 72 32 23 12·7 1·5 10·0
Boys<10 years 8·0 62 245 58 18·0 73 34 22 10·7 1·3 9·6
Girls≥10 years 7·3 62 222 48 16·1 66 30 22 10·3 1·2 9·3
Boys≥10 years 8·2 69 247 49 17·6 75 31 24 13·5 1·4 11·2
Belgium (3–9 years; 10–17 years) Belgian National Food Consumption Survey (BNFCS) 2014–2015
Girls<10 years 6·2 51 186 99 13·6 57 23 21 9·6 0·7
Boys<10 years 6·8 56 205 111 13·4 62 25 22 9·6 0·7
Girls≥10 years 7·8 64 221 107 15·5 74 27 27 12·4 0·7
Boys≥10 years 9·4 79 270 133 16·4 88 32 32 15·0 0·9
France (0–10 years; 11–17 years) Individual National Food Consumption Survey (INCA3) 2014–2015
Girls<10 years 6·0 53 176 95 12·7 54 24 18 6·4 0·9 4·7
Boys<10 years 6·6 58 199 103 13·8 57 26 19 6·6 0·8 5·0
Girls≥10 years 7·6 70 226 98 16·1 66 28 22 8·5 1·0 6·2
Boys≥10 years 8·9 83 262 111 18·1 77 33 26 9·9 1·1 7·3
Germany (14–18 years) German National Nutrition Survey (Nationale Verzehrstudie) II (NVSII) 2005–2007
Girls<10 years
Boys<10 years
Girls≥10 years 8·8 66 274 23·2 77
Boys≥10 years 12·1 94 355 26·0 110
Ireland (1–8 years; 9–17 years) National Pre-School Nutrition Survey 2010–2011; National Children’s Nutrition Survey 2003–2004; National Teens Nutrition Survey 2005–2006
Girls<10 years 5·4 46 171 76 37 10·5 48 21 16 6·5 0·6
Boys<10 years 5·5 47 177 76 37 10·8 48 22 17 6·5 0·6
Girls≥10 years 7·1 58 224 9·7 66 27 23 10·5
Boys≥10 years 8·9 77 281 12·2 82 34 29 12·5
Italy (0–9·9 years; 10–17·9 years) Third Italian National Food Consumption Survey INRAN-SCAI 2005–2006
Girls<10 years 7·3 67 220 83 13·1 72 24 33 8·7
Boys<10 years 7·3 67 220 83 13·1 72 24 33 8·7
Girls≥10 years 8·7 82 263 88 16·4 86 27 40 11·1
Boys≥10 years 10·8 99 327 108 18·1 105 33 49 13·7
Netherlands (2–8 years; 9–18 years) Dutch National Food Consumption Survey – young children (DNFCS) 2008; Dutch National Food Consumption Survey (DNFCS) 2007–2010
Girls<10 years 6·3 48 209 127 13·0 53 20 14·0 1·2
Boys<10 years 6·6 50 218 132 14·0 54 21 14·0 1·3
Girls≥10 years 8·5 67 257 134 16·7 76 29 27 14·2 1·2 1·4 11·6
Boys≥10 years 10·7 81 312 159 19·6 94 35 34 18·1 1·5 1·7 15·0
Portugal (0–9 years; 10–17 years) National Food and Physical Activity Survey (IAN-AF) 2015–2016
Girls<10 years 5·7 58 175 89 12·8 46 21 21 7·2 0·7 5·9
Boys<10 years 5·9 56 180 90 13·2 47 21 21 7·4 0·7 6·9
Girls≥10 years 7·9 83 219 88 16·1 67 29 27 11·0 1·2 10·5
Boys≥10 years 9·7 104 273 107 18·2 81 35 32 13·1 1·5 13·1
Spain (9–17 years) ANIBES 2013
Girls<10 years
Boys<10 years
Girls≥10 years 7·8 72 208 88 11·7 80 26 32 13·7
Boys≥10 years 8·7 83 227 92 11·8 89 30 37 14·8
UK (1·5–10 years; 11–18 years) National Diet and Nutrition Survey Rolling Programme (NDNS RP) years 1–4 2008–2012
Girls<10 years 5·8 50 187 88 9·9 52 21 18 7·7 1·0 1·2 6·6
Boys<10 years 6·0 52 198 92 10·5 54 22 19 8·0 1·0 1·2 6·8
Girls≥10 years 6·6 56 211 90 10·7 60 22 23 10·1 1·1 1·6 8·5
Boys≥10 years 8·3 74 265 116 12·8 74 28 28 11·9 1·4 1·9 10·0
West mean girls<10 years 6·3 55 194 92 46 12 57 23 22 8 1·0 1·0 5·9
West mean boys<10 years 6·6 57 205 97 49 13 59 24 23 8 1·0 1·0 6·1
West mean girls≥10 years 7·9 68 237 95 48 16 72 26 28 11 1·1 1·3 8·0
West mean boys≥10 years 9·7 86 289 113 49 18 90 31 33 13 1·4 1·5 9·6
Europe mean girls<10 years 6·0 50 183 91 46 12 56 21 20 10 1·0 1·0 8·6
Europe mean boys<10 years 6·3 53 192 95 48 13 58 22 21 10 1·0 1·0 9·2
Europe mean girls≥10 years 7·7 64 233 95 58 17 71 25 26 13 1·1 1·3 11·4
Europe mean boys≥10 years 9·4 80 281 113 63 18 86 30 31 15 1·4 1·5 13·1

CHO, carbohydrates; TFA, trans-fatty acids; CEEC, Central and Eastern European countries.

*

Where mean intakes were reported by a country for more than one age group<10 years, or more than one age group≥10 years, the numbers of children/adolescents surveyed in the national diet survey for each age group and sex were used to weight the reported means to produce estimate mean intakes for those aged<10 years and those aged≥10 years for each nutrient. Countries that span the 10-year boundary are: Cyprus (9–13·9 years); Ireland (9–12 years); Latvia (7–16 years); the Netherlands (9–13 years); Spain (9–12 years); Turkey (9–11 years) and the UK (4–10 years). For each nutrient regional weighted means for North, West and Central and Eastern Europe and Europe overall were calculated by weighting the<10 years and≥10 years country means shown in the table by the total child population in that country(2224).

Micronutrients were less widely covered by the twenty-one surveys – Spain reported no micronutrient intakes and Latvia only included Na (see Table 6). Ca and Fe were reported by all but two surveys (Latvia and Spain did not), whilst vitamins B12 and D were reported by all but three (Latvia, Spain and Cyprus did not). Iodine was the least reported micronutrient, by just over half (n 11) of the surveys.

Table 6.

Estimated means for<10 years and≥10 years by country and region for micronutrients in twenty-one national dietary surveys in the WHO Europe region*

Survey Total folate (µg) Vitamin B12 (µg) Vitamin D (µg) Ca (mg) K (mg) Na (mg) Fe (mg) Iodine (µg) Zn (mg)
Bulgaria (1–4 years) National Survey on Nutrition of Infants and Children Under 5 and Family Child Rearing 2007
Girls<10 years 117 2·3 2·1 541 1637 5·7 5·9
Boys<10 years 117 2·3 2·1 541 1639 5·7 5·9
Girls≥10 years
Boys≥10 years
Cyprus (6–8·9 years; 9–18·9 years) A study of the dietary intake of Cypriot children and adolescents aged 6–18 years 2009–2010
Girls<10 years 930 2311 2283 10·9
Boys<10 years 957 2337 2331 11·4
Girls≥10 years 866 2161 2292 10·5
Boys≥10 years 974 2432 2699 12·2
Estonia (2–9 years; 10–17 years) National Dietary Survey 2014–2015
Girls<10 years 142 3·8 2·0 671 2449 1147 8·1 108 6·7
Boys<10 years 150 4·7 2·4 738 2689 1314 9·1 122 7·6
Girls≥10 years 156 4·4 2·2 666 2657 1448 9·6 109 7·2
Boys≥10 years 191 5·5 3·3 888 3421 2085 12·4 150 10·2
Latvia (7–16 years) Latvian National Food Consumption Survey 2007–2009
Girls<10 years
Boys<10 years
Girls≥10 years 2000
Boys≥10 years 2840
Slovenia (15–16 years) Dietary Intake of Macro- and Micronutrients in Slovenian Adolescents 2012
Girls<10 years
Boys<10 years
Girls≥10 years 276 5·9 4·0 1176 3770 4191 16·0 205 12·4
Boys≥10 years 255 6·7 4·0 1094 3494 4059 16·0 181 13·5
Turkey (2–8 years; 9–18 years) Turkey Nutrition and Health Survey 2010 (TNHS)
Girls<10 years 200 2·1 0·9 520 1665 1048 7·0 45 5·9
Boys<10 years 205 2·4 1·1 550 1729 1114 7·4 48 6·4
Girls≥10 years 282 3·6 0·9 553 2065 1591 9·6 53 8·0
Boys≥10 years 327 4·4 1·1 618 2279 2009 10·9 59 9·4
CEEC mean girls<10 years 195 2·1 1·0 526 1679 1087 6·9 46 5·9
CEEC mean boys<10 years 200 2·4 1·1 554 1744 1151 7·3 49 6·4
CEEC mean girls≥10 years 280 3·6 1·0 566 2097 1640 9·7 56 8·0
CEEC mean boys≥10 years 324 4·4 1·2 631 2310 2058 11·0 62 9·5
Denmark (4–9 years, 10–17 years) Danish National Survey of Diet and Physical Activity (DANSDA) 2011–2013
Girls<10 years 270 5·1 2·5 906 2500 2800 8·4 210 8·9
Boys<10 years 289 5·6 2·8 1052 2700 3100 9·4 233 9·8
Girls≥10 years 254 4·3 2·4 910 2500 3000 8·3 213 9·1
Boys≥10 years 307 6·0 3·1 1183 3100 3900 10·8 249 12·4
Norway (4–9 years, 13 years) UNGKOST 3 2015–2016
Girls<10 years 168 4·5 3·6 729 2127 2067 6·6
Boys<10 years 183 5·1 3·8 821 2377 2255 8·2
Girls≥10 years 183 4·9 3·5 753 2300 2300 8·0
Boys≥10 years 210 5·9 4·3 918 2700 2700 9·0
North mean girls<10 years 221 4·8 3·0 820 2319 2445 7·5 210 8·9
North mean boys<10 years 237 5·3 3·3 940 2544 2691 8·8 233 9·8
North mean girls≥10 years 220 4·6 2·9 834 2403 2661 8·2 213 9·1
North mean boys≥10 years 260 6·0 3·7 1055 2906 3319 9·9 249 12·4
Austria (7–9 years; 10–14 years) Austrian Nutrition Report (OSES) 2010–2012
Girls<10 years 171 3·5 1·7 739 2259 3320 9·4 102 8·5
Boys<10 years 164 3·7 2·1 876 2270 3520 9·7 111 8·8
Girls≥10 years 141 3·7 1·4 683 1939 3339 8·6 88 8·1
Boys≥10 years 164 4·0 1·5 733 2214 3750 10·5 101 9·4
Belgium (3–9 years; 10–17 years) Belgian National Food Consumption Survey (BNFCS) 2014–2015
Girls<10 years 166 3·5 3·2 670 1645 6·8 115
Boys<10 years 180 4·4 3·4 731 1803 7·7 118
Girls≥10 years 183 3·6 3·3 681 1940 7·8 117
Boys≥10 years 209 4·6 3·6 786 2406 9·7 141
France (0–10 years; 11–17 years) Individual National Food Consumption Survey (INCA3) 2014–2015
Girls<10 years 228 3·5 6·4 801 2020 1691 2·4 110 6·6
Boys<10 years 243 3·7 5·5 857 2224 1860 4·6 121 7·0
Girls≥10 years 270 3·9 2·8 681 2538 2352 8·9 122 7·7
Boys≥10 years 300 5·0 3·0 786 2814 2832 10·7 146 9·6
Germany (14–18 years) German National Nutrition Survey (Nationale Verzehrstudie) II (NVSII) 2005–2007
Girls<10 years
Boys<10 years
Girls≥10 years 340 4·0 2·0 1023 3011 2471 12·1 171 9·3
Boys≥10 years 410 6·3 2·7 1277 3655 3535 15·6 231 12·7
Ireland (1–8 years; 9–17 years) National Pre-School Nutrition Survey 2010–2011; National Children’s Nutrition Survey 2003–2004; National Teens Nutrition Survey 2005–2006
Girls<10 years 188 4·1 2·9 789 1750 1193 7·8 156 5·6
Boys<10 years 195 4·1 3·0 808 1750 1193 8·1 156 5·8
Girls≥10 years 222 4·1 2·3 764 9·9 6·8
Boys≥10 years 322 5·6 2·7 1028 13·0 9·1
Italy (0–9·9 years; 10–17·9 years) Third Italian National Food Consumption Survey (INRAN-SCAI) 2005–2006
Girls<10 years 5·0 2·0 731 2235 8·6 9·0
Boys<10 years 5·0 2·0 731 2235 8·6 9·0
Girls≥10 years 4·1 2·4 770 3123 10·6 10·9
Boys≥10 years 5·6 2·6 892 2737 12·2 13·3
Netherlands (2–8 years; 9–18 years) Dutch National Food Consumption Survey – young children (DNFCS) 2008; Dutch National Food Consumption Survey (DNFCS) 2007–2010
Girls<10 years 117 2·7 2·2 756 2357 6·7 5·6
Boys<10 years 183 2·8 2·4 832 2362 6·9 5·9
Girls≥10 years 193 3·3 2·4 881 2562 2297 8·5 150 8·5
Boys≥10 years 233 4·1 3·0 1018 3036 2804 9·9 193 10·1
Portugal (0–9 years; 10–17 years) National Food and Physical Activity Survey (IAN-AF) 2015–2016
Girls<10 years 192 2·7 6·3 781 2504 1638 8·5 6·9
Boys<10 years 193 2·7 6·7 851 2539 1643 8·9 7·1
Girls≥10 years 222 4·5 3·5 757 2891 2731 16·0 9·7
Boys≥10 years 252 5·1 4·3 922 3409 3255 16·0 12·1
Spain (9–17 years) ANIBES 2013
Girls<10 years
Boys<10 years
Girls≥10 years
Boys≥10 years
UK (1·5–10 years; 11–18 years) National Diet and Nutrition Survey Rolling Programme (NDNS RP) years 1–4 2008–2012
Girls<10 years 175 3·8 1·9 780 1989 1625 7·7 134 5·9
Boys<10 years 185 4·0 2·0 807 2081 2196 8·2 141 6·2
Girls≥10 years 186 3·6 1·9 670 2065 1902 8·4 109 6·3
Boys≥10 years 233 4·4 2·4 889 2536 2960 10·7 141 8·3
West mean girls<10 years 190 3·8 3·5 768 2106 1715 6·3 122 6·9
West mean boys<10 years 206 4·0 3·3 808 2198 2026 7·2 130 7·2
West mean girls≥10 years 251 4·3 2·3 824 2640 2286 9·9 133 8·4
West mean boys≥10 years 298 5·2 2·8 1002 2948 3078 12·1 170 10·8
Europe mean girls<10 years 193 3·3 2·7 691 1974 1492 6·6 93 6·6
Europe mean boys<10 years 205 3·5 2·6 729 2062 1702 7·3 99 6·9
Europe mean girls≥10 years 259 4·1 2·0 755 2481 2095 9·8 109 8·3
Europe mean boys≥10 years 304 5·0 2·4 903 2768 2765 11·8 137 10·4

CEEC, Central and Eastern European countries.

*

Where mean intakes were reported by a country for more than one age group<10 years, or more than one age group≥10 years, the number of children/adolescents surveyed in the national diet survey for each age group and sex were used to weight the reported means to produce estimate mean intakes for those aged<10 years and those aged≥10 years for each nutrient. Countries that span the 10-years boundary are: Cyprus (9–13·9 years); Ireland (9–12 years); Latvia (7–16 years); the Netherlands (9–13 years); Spain (9–12 years); Turkey (9–11 years) and the UK (4–10 years). For each nutrient regional weighted means for North, West and Central and Eastern Europe and Europe overall were calculated by weighting the<10 years and≥10 years country means shown in the table by the total child population in that country(2224).

Of the twenty-one surveys for which energy and nutrient intakes were extracted, only 38 % (n 8) reported intakes by socio-economic group in addition to age and sex (Estonia, France, all three Irish surveys, Dutch National Food Consumption Survey of young children, Norway, UK).

Energy and nutrient intakes

Means reported here are estimated weighted means for Europe overall for children<10 years and≥10 years (see Tables 5 and 6 for estimated means by energy and nutrients broken down by country/survey); values in parentheses are ranges of sex and age group means provided in the survey reports. Of the nineteen macro- and micronutrients considered, no country other than Slovenia (44 %) met more than half of the WHO RNI in the nutrients and age/sex groups for which they were reported. Though patterns were evident across sex and age, there were no apparent regional trends across Europe.

Energy

Although age groupings were not consistent across countries, where boys and girls were presented separately, boys’ intakes were generally higher than girls’ and older children had higher intakes (see Fig. 1). The mean energy intake was 6·0 (range 5·3–8·0) MJ and 7·7 (range 6·6–9·4) MJ for girls<10 years and≥10 years, respectively, and 6·3 (range 5·5–8·5) MJ and 9·4 (range 8·2–12·7) MJ for boys.

Fig. 1.

Fig. 1

Mean/median energy intake (MJ/d) (excluding supplements). y, Years.

Macronutrients

For all macronutrients, where age groups were split by sex, boys generally had higher intakes than girls in all countries except Slovenia, particularly in older children. WHO RNI(15,21) attainment was universally poor in both sexes across all ages in the majority of macronutrients. The TFA RNI had the highest compliance, with all countries that reported intakes falling below the maximum value. No country fell short of the 10 %E minimum protein value and half the surveys fell between the 10 and 15 %E minimum and maximum boundaries. Only Slovenian teenagers and Dutch young children met the lower 55 %E carbohydrate RNI (Fig. 2). The mean carbohydrate intake was 183 (range 126–255) g and 233 (range 192–379) g for girls aged<10 years and≥10 years, respectively, and 192 (range 126–258) g and 281 (range 211–370) g for boys. Of the six countries that reported added sugars (n 6), Ireland (1 year), Denmark (4–9 years), Norway (4 years) and Austrian boys (10–12 and 13–14 years) had intakes between the recommended 5 %E and maximum 10 %E RNI and all other children exceeded the maximum (Fig. 3). Mean added sugar intakes were 46 (range 25–56) g and 58 (range 48–110) g for girls<10 years and≥10 years, respectively, and 48 (range 25–61) g and 63 (range 49–103) g for boys. Only Slovenian adolescents and German boys (14–18 years) met the 25 g fibre RNI (Fig. 4). Mean fibre intakes were 12 (range 8–19) g and 17 (range 9–31) g for girls<10 years and≥10 years, respectively, and 13 (range 8–21) g and 18 (range 11–28) g for boys.

Fig. 2.

Fig. 2

Mean/median child carbohydrate intake (percentage energy; %E) (excluding supplements). y, Years; RNI, recommended nutrient intake.

Fig. 3.

Fig. 3

Mean/median child added sugars intake (percentage energy; %E) (excluding supplements). y, Years; RNI, recommended nutrient intake.

Fig. 4.

Fig. 4

Mean/median child fibre intake (g/d) (excluding supplements). y, Years; RNI, recommended nutrient intake.

Total fat and saturated fats RNI compliance was particularly poor – all countries in all age groups exceeded the latter and only Slovenia and the Netherlands (2–3 years) had fat intakes below the 30 %E maximum RNI, but these were close to the upper boundary (Figs. 5 and 6). Mean fat intakes were 56 (range 38–80) g and 71 (range 60–148) g for girls<10 years and≥10 years, respectively, and 58 (range 38–80) g and 86 (range 66–177) g for boys. For saturated fats this was 21 (range 14–32) g and 25 (range 16–35) g for girls<10 years and ≥10 years, respectively, and 22 (range 14–34) g and 30 (range 18–38) g for boys. PUFA RNI attainment was mixed, although all countries except Turkey that achieved the RNI were very close to the lower 6 %E boundary (Fig. 7). Mean PUFA intakes were 10 (range 4–17) g for both sexes aged<10 years and 13 (range 9–19) g for girls and 15 (range 10–21 g) for boys aged≥10 years.

Fig. 5.

Fig. 5

Mean/median child fat intake (percentage energy; %E) (excluding supplements). y, Years; RNI, recommended nutrient intake.

Fig. 6.

Fig. 6

Mean/median child saturated fat intake (percentage energy; %E) (excluding supplements). y, Years; RNI, recommended nutrient intake.

Fig. 7.

Fig. 7

Mean/median child PUFA intake (percentage energy; %E) (excluding supplements). y, Years; RNI, recommended nutrient intake.

RNI attainment was relatively poor for the seven countries that reported n-3 and n-6 (omega) fat intakes; only Estonian boys (14–17 years) achieved the lower 1 %E n-3 RNI (Fig. 8). Just over half of countries reporting n-6 achieved the lower 5 %E RNI in some age categories (Fig. 9). Turkey was the only country to exceed the upper 8 %E n-6 limit in any age group. Mean n-3 intakes were 1·0 (range 0·5–1·5) g and 1·3 (range 0·5–1·6) g for girls<10 years and≥10 years, respectively, and 1·0 (range 0·5–1·4) g and 1·5 (range 0·5–2·5) g for boys. Mean n-6 intakes were 8·6 (range 3·0–15·6) g and 11·4 (range 3·1–17·3) g for girls<10 years and≥10 years, respectively, and 9·2 (range 2·9–15·6) g and 13·1 (range 3·1–19·7) g for boys.

Fig. 8.

Fig. 8

Mean/median child n-3 PUFA intake (percentage energy; %E) (excluding supplements). y, Years; RNI, recommended nutrient intake.

Fig. 9.

Fig. 9

Mean/median child n-6 PUFA intake (percentage energy; %E) (excluding supplements). y, Years; RNI, recommended nutrient intake.

Micronutrients

Micronutrient RNI attainment(1618) was better than for macronutrients. Micronutrient intakes are grouped according to RNI compliance and described beginning with those with greatest compliance across the countries and ending with those that demonstrate the greatest shortfall. All micronutrients except vitamin D had age-specific RNI; Fe and Zn also had sex-specific RNI for children aged 10–18 years. RNI compliance was greater in boys and younger children aged <10 years.

All countries met the vitamin B12 RNI across all ages, with the exception of Turkish adolescent girls. The majority of countries met the Zn RNI across the age groups surveyed; however, attainment gaps were most likely to be in adolescent girls. K and Fe intakes were mixed, but generally poorer in children aged≥10 years and girls, particularly for Fe (Figs. 10 and 11). All countries (except France) fulfilled the K RNI in some age groups and only Slovenian adolescent girls and German and Estonian adolescent boys exceeded the upper 3500 mg RNI. However, no country met the lower K RNI across all childhood stages. Mean intakes were 1974 (range 1471–2700) mg and 2481 (range 1867–3770) mg for girls<10 years and≥10 years, respectively, and 2062 (range 1471–3000) mg and 2768 (range 2039–3800) mg for boys. Bulgaria and France did not achieve the UK Fe RNI(21) in any age group. In other countries lack of compliance with the Fe RNI was dominated by adolescent girls, where only Slovenia achieved the RNI. Boys had slightly higher intakes than girls – mean intakes were 6·6 (range 5·0–10·9) mg and 9·8 (range 7·7–16·0) mg for girls<10 years and≥10 years, respectively, and 7·3 (range 5·0–11·4) mg and 11·8 (range 9·0–16·0) mg for boys. However, boys have lower requirements, resulting in higher RNI attainment.

Fig. 10.

Fig. 10

Mean/median child potassium intake (mg/d) (excluding supplements). y, Years; RNI, Reference Nutrient Intake.

Fig. 11.

Fig. 11

Mean/median child iron intake (mg/d) (excluding supplements). y, Years; RNI, Reference Nutrient Intake.

Ca and iodine attainment was also mixed; 75 % countries reporting Ca achieved the RNI in some age groups, though no country had adequate intakes in children aged≥10 years (Fig. 12). Mean Ca intakes were 691 (range 26–1113) mg and 755 (range 545–1167 mg) for girls<10 years and≥10 years, respectively, and 729 (range 515–966 mg) and 903 (range 554–1277 mg) for boys. Three of the ten countries reporting iodine (Turkey, Austria, France) did not achieve the RNI in any age group (Fig. 13); of the remainder, attainment was spread across age groups. Mean intakes were 93 (range 44–272) µg and 109 (range 52–213) µg for girls<10 years and≥10 years, respectively, and 99 (range 47–283) µg and 137 (range 53–249) µg for boys.

Fig. 12.

Fig. 12

Mean/median child calcium intake (mg/d) (excluding supplements). y, Years; RNI, recommended nutrient intake.

Fig. 13.

Fig. 13

Mean/median child iodine intake (µg/d) (excluding supplements). y, Years; RNI, recommended nutrient intake.

Irish boys (13–14 years) were the only group aged>3 years with adequate total folate intakes (Fig. 14). Mean intakes were 193 (range 104–270) µg and 259 (range 137–340) µg for girls<10 years and≥10 years, respectively, and 205 (range 104–289) µg and 304 (range 143–410) µg for boys. The lowest RNI attainment was in vitamin D, where only French and Portuguese children aged<10 years had sufficient intakes (Fig. 15). Mean intakes were 2·7 (range 0·8–6·4) µg and 2·0 (range 0·8–4·0) µg for girls<10 years and≥10 years, respectively, and 2·6 (range 0·8–6·7) µg and 2·4 (range 1·0–4·3) µg for boys. Most countries over-consumed Na – only Estonian girls aged≥10 years and Turkish adolescent girls did not exceed the 1600 mg RNI (Fig. 16). Mean intakes were 1492 (range 918–3320 mg) and 2095 (range 1434–4191 mg) for girls<10 years and≥10 years, respectively, and 1702 (range 918–3520 mg) and 2765 (range 1599–4059 mg) for boys.

Fig. 14.

Fig. 14

Mean/median child total folate intake (µg/d) (excluding supplements). y, Years; RNI, recommended nutrient intake.

Fig. 15.

Fig. 15

Mean/median child vitamin D intake (µg/d) (excluding supplements). y, Years; RNI, recommended nutrient intake.

Fig. 16.

Fig. 16

Mean/median child sodium intake (mg/d) (excluding supplements). y, Years; RNI, Reference Nutrient Intake.

Discussion

Data extracted

The present review details the reporting of child intake data for energy and selected nutrients of concern in nationally representative surveys across the fifty-three countries in the WHO Europe remit(1). Only a third of countries, mostly Western European, reported intake data by sex and age group. This is concerning, as potential micronutrient deficiencies may go unidentified and nutrition policies in two-thirds of the WHO Europe region, particularly outside Western Europe, may be based on limited contextual evidence that can be critical in tailoring policies to local needs. This makes impacts on other NDS and has longer-term implications for obesity; over 60 % children who are overweight before puberty are likely to remain so in adulthood(25). Although Southern European countries have previously had the highest prevalence in children aged 6–9 years(26,27), there has been a particularly marked increase in childhood obesity in CEEC since 2002(28). In addition, six of the top ten countries for overweight and obesity in girls, and five of the top ten countries for boys aged 7–9 years in the Childhood Obesity Surveillance Initiative round 4 were CEEC(29). This is concerning, as increased intakes of processed foods driven by food system changes induced by the nutrition transition in CEEC(30) could begin to affect later years. If dietary data are lacking, countries may struggle to advocate and design effective policies.

Energy, and macro- and micronutrients were generally widely reported in the twenty-one surveys across eighteen countries from which intakes were extracted, though some gaps were evident. Energy was universally reported, and macronutrients slightly better represented than micronutrients. This forms a good foundation for assessing child nutrient status and identifying vulnerable age/sex groups. The largest nutrient gaps in reported intakes were TFA, n-3 and n-6 (omega) fats, added sugars and iodine, all of which have been highlighted as of concern(1,31). Iodine deficiency has been linked to reduced cognitive function in children(32) and remains an issue in the WHO European region. Andersson et al.(33) examined national (about 65 %) and subnational (about 35 %) data on urinary iodine concentration and found that 43·9 % of European school-age children had insufficient intakes.

n-3 Fatty acids have established links with reduced blood pressure and CHD risk in adulthood, amongst other health benefits(34,35), including brain development(36). Over-consumption of sugar, particularly in adolescents and often from sugar-sweetened beverages, is linked to overweight and obesity via elevated energy intake and can promote suboptimal diets by displacing nutrient-rich foods(28). Lack of intake data for these nutrients therefore hampers the identification of unfavourable intakes and policy formulation to prevent subsequent problems in childhood that affect the lifespan. Although there were no regional patterns in nutrient reporting, Latvia only reported on energy and Na intakes and Spain included no micronutrients. This has implications for national nutrition policies and identification of vulnerable groups in these countries.

Only a third of countries reported energy and nutrient intake by socio-economic group, by one or more indicators including education, occupation, income and social class (Table 4). This narrows opportunities to assess nutrient-based socio-economic inequalities in population subgroups, and prevents comparisons with countries that do include such stratification. Vulnerable groups may therefore be susceptible to malnutrition, with limited monitoring tools for preventative policy formation.

Energy intakes

As expected, boys and older children had generally higher energy intakes. There were no obvious regional trends, though German and Slovenian adolescent boys had particularly high intakes, possibly due to the age range being limited to older adolescents. The literature suggests that under-reporting affects reported intakes to varying degrees across countries, making valid comparisons difficult, particularly considering that in different surveys children reported their own intake at different ages. Rothausen et al.(37) found that misreporting in Danish children aged 7–8 years was ‘modest’, and greater in those aged 12–13 years, particularly in food diaries compared with 24 h recalls. Similarly, Lioret et al.(38) found greater under-reporting in French children aged≥10 years than in those aged<10 years, and one study found under-reporting in British children aged 11–17 years as high as 73 %(39). This suggests that the energy differential between younger and older children may be higher than that reported.

Nutrient intakes and WHO recommended nutrient intakes status

Countries in all WHO Europe regions had poor RNI attainment levels – only Slovenia met over half of the RNI for those nutrients and age/sex groups reported (Table 4). This is concerning, as it implies that nutritional issues affect children across Europe, to an extent that may be difficult to determine due to the limitations of the data available and the gaps in data for some countries and nutrients. Older adolescents in the≥10 years range are more likely to meet RNI based on absolute levels rather than %E, such as fibre. This could explain why Slovenia had the highest percentage compliance (42 %), having generally high intakes across the nutrients extracted. This could be due to the narrow adolescent age range surveyed (15–16 years); Germany had a similar age range (14–18 years) and also had relatively high intakes. However, other countries with similar age groupings had lower intakes, supporting the possibility of the differences being genuine.

Macronutrients

Most countries did not meet the carbohydrate, sugar or fibre RNI in any age group. The only exceptions were German boys, who met the fibre RNI, and Slovenia, which met the total carbohydrate and fibre RNI. However, both the German and Slovenian cohorts were limited to adolescents, giving them a greater chance of having intakes high enough to meet the fibre RNI, which represents an absolute amount rather than %E and is not a child-specific target. Northern European children<10 years were more likely to meet the added sugar RNI, and other than Slovenian adolescents, Dutch children aged<10 years were the only other group to meet the lower carbohydrate RNI. This suggests that in countries where sugar data were present, most children, particularly those aged≥10 years, could be at greater risk of the weight gain and associated risks linked to high sugar and low complex carbohydrate consumption(40).

Most countries had intakes indicating an unfavourable fatty acid balance across all age groups; all countries were over the upper RNI for saturated fats in all age groups and only Slovenia and very young Dutch children were below the maximum fat RNI. Dutch children aged 2–3 years were the only group with a favourable fatty acid profile, achieving the PUFA in addition to the total fat RNI. Slovenian children neither achieved the PUFA RNI nor had a substantial MUFA intake compared with other children aged≥10 years. The Netherlands and Turkey met the PUFA and n-6 RNI in all ages and Austria, the Netherlands and Portugal met the n-6 RNI in older children. Spain also met the PUFA RNI in all ages and Cyprus, Italy and Spain had relatively high MUFA intakes. The favourable intakes in these countries could indicate aspects of a Mediterranean diet pattern, which when adhered to in its complete form and supported by other factors such as physical activity, has been linked to reduced childhood obesity(41). Conversely, n-3 intakes were poor, with only Estonian adolescent boys achieving the RNI.

TFA had the highest RNI compliance for those countries which reported it. This may reflect positive moves to reduce levels in the food supply following advice from health bodies like the WHO(1), including bans, labelling legislation and voluntary product reformulation(4244). However, the low number of countries reporting TFA demonstrates the need for a common and comprehensive blueprint for conducting NDS and gathering nutrient intake data across Europe.

Micronutrients

As with macronutrients, there were no clear regional patterns in micronutrient intakes or RNI attainment. However, compliance was highest in boys and children aged<10 years. Unlike macronutrients, micronutrient RNI are based on absolute intakes rather than %E. Yet although most micronutrients have different RNI for specific age groups, intakes in children aged≥10 years were generally not sufficient to meet RNI for older children, particularly girls. Even in Zn and vitamin B12, where RNI attainment was high, shortfalls in adolescent girls were apparent, highlighting them as a vulnerable group.

Although not the worst in overall RNI attainment, Fe was a particular issue for adolescent girls, with all countries except Slovenia having inadequate intakes. This is consistent with previous (non-national) European-based reviews and relates to higher requirements, primarily due to menstruation(45,46). Adolescent girls are at greater risk of Fe-deficiency anaemia, and deficiency is associated with reduced intellectual, immune and other metabolic functions(46). Deficiency in this group may also be underestimated, as UK RNI were used instead of WHO RNI because the latter have different values for different bioavailabilities and menarchal status, which would be difficult to determine(16). However, although agreement between the UK and WHO RNI was good for children aged<10 years, WHO RNI requirements are much higher for girls post-menarche, even when using the RNI that assumes the highest bioavailability from diet (15 %)(16,21). The scale of European deficiency in this group may therefore be greater than previously thought, and policy initiatives may be required to improve Fe intakes.

Ca intakes were inadequate in older boys and girls. Ca is needed for bone and tooth development, metabolic processes including muscle and nerve function and its metabolism is linked with vitamin D intake. Vitamin D intakes, assessed by a singular absolute amount, rather than age-specific RNI, were universally lacking other than in younger Portuguese children. This is an important issue, as in addition to roles in bone, muscle and immune function, deficiency is linked to rickets(47,48). Although rickets was of relatively little concern in Europe in the latter half of the 20th century, in recent years prevalence has risen, particularly in the UK and Northern European countries and for individuals with darker skin or who cover up for religious and other reasons, as less can be synthesised on exposure to sunlight(49).

Total folate intakes were universally poor, with no children aged>3 years achieving the RNI. Na intakes exceeded the RNI in all children except adolescent girls from Estonia and Turkey, which are both CEEC. This is despite the potential for under-reporting due to intakes being derived from self-assessed dietary methodologies rather than 24 h urinary biomarkers. Further efforts are needed to promote the consumption of low-salt, minimally processed foods and advance reformulation of foods commonly consumed by children – these will vary by country, but might include bread, cheeses and breakfast cereals. However, salt iodisation is a primary means of increasing population iodine intakes, and iodine was the least reported micronutrient. Calls to reduce salt intake can lead to questions of compatibility with iodine intake goals, especially in CEEC. With almost half of European school-age children having insufficient intakes(33), which can cause reduced cognitive function(32), care is needed in approaches to tackle Na over-consumption, especially where iodine RNI attainment is low and salt iodisation is practised(50). However, evidence is clear that appropriate Na and iodine intakes can be achieved in the context of Na reduction initiatives(18), as iodine concentration in salt can be increased or alternative vehicles for iodine sourced.

Of the micronutrients investigated, our findings show that Fe, vitamin D, total folate and Na would benefit from European-wide policy focus to improve intakes, particularly in girls and children aged≥10 years. Effective food-based approaches, including product reformulation and fortification, currently exist alongside targeted supplementation for at-risk groups. Aside from total folate, the WHO Europe Food and Nutrition Action Plan(1) identifies these as nutrients of concern, although this refers to all ages rather than specifically children. The Action Plan also highlights energy, saturated fat and sugar reduction as priorities and recommends a suite of policy options to address their excess intake, which our findings support. However, the plan does not discuss the increase of carbohydrate, fibre or n-3 and n-6 (omega) fats, and our findings show that the RNI for these were often not met. Countries across WHO Europe should also be encouraged to address this in policy and guidance, for example increased use of whole grains in manufactured products or public education on sources of n-3 and n-6 (omega) fats.

Strengths and limitations

This review presents a much-needed up-to-date review of national child energy and nutrient intakes across Europe. It also reports intakes against WHO RNI, enabling governments and policymakers to better use NDS to inform initiatives to improve diets and reduce diet-related diseases in groups and areas of greatest need. It is well documented that energy, macronutrient and Na over-consumption is linked to childhood obesity and related NCD(1) and poor micronutrient intakes continue to cause health problems in children(45,46,49). Blundell et al.(51) found>10 % inter-country variation in obesity prevalence and cited differences in national age profiles and sociodemographic patterns as key contributors. The present review highlights both the scale and the potential hidden extent of such issues, showing that reported lack of compliance with WHO RNI may be the tip of the iceberg, with many countries’ intakes unknown. In addition to previous reviews, which document NDS provision across Europe(6,12), the present review also highlights whether and how surveys report nutrient intakes by socio-economic group, helping to direct further research in this area.

A primary limitation is that inter-country comparisons are difficult, as age groupings were inconsistent. The most extreme example of this drawback was in Andorra, which could not be included in the present review as the lowest age group included both adults and children. Age groupings also differed within countries; Bulgaria split children into four groups for energy, but two for other macro- and micronutrients, making consistent and complete analysis difficult. In addition, several countries did not separate girls and boys in the youngest age groups. Raw survey data could be used in future work to create consistent age groups and obtain more reliable conclusions.

Differences in the reporting of nutrient intakes across and within countries further hindered comparisons and, in some cases, limited RNI assessment. For example, Estonia did not report nutrients in all age groups and the three Irish surveys reported different nutrients. Bulgaria reported some nutrients by %E and others with absolute values; because age groups for energy differed from other nutrients, the %E needed to assess macronutrient RNI could not always be calculated, resulting in knowledge gaps. Age groups did not always correspond with RNI age boundaries, particularly in micronutrients, making it difficult to assess attainment. However, examples in the literature exist where international comparisons are made despite different age groupings(7). Using RNI to assess nutrient intake adequacy also has limitations, as assertions are only as good as the data on which they are based, which may be incomplete. RNI are estimates of the amount of a nutrient needed to ensure that the needs of the majority of a group (97·5 %) are being met; therefore RNI err on the side of caution and may over-estimate inadequacies. The proportion of intakes in a population group below the estimated average requirements is a more appropriate measure of nutrient inadequacy than the proportion below the RNI; however, lack of raw data from sufficient countries prevented this(16). Additionally, although the<10 years and≥10 years age group splits were chosen to align with the RNI age cut-offs, different cut-offs will have produced different results. Despite these difficulties, the present review remains an important study that displays nutrient intakes in children, which the WHO defines as a vulnerable group(1). Any difficulties posed by lack of comparability serve to highlight the pressing need for harmonisation of methodologies and approaches.

The country means (Tables 5 and 6) for the<10 years or≥10 years groups are approximations that depend on the age ranges surveyed. For instance, the Slovenian NDS covered a small age range (15–16 years); reported mean intakes may therefore be less representative of the≥10 years group than countries that have surveyed a wider age range. Similarly, the contribution to the weighted estimated means for its region and Europe overall may be unrepresentative. The country-specific means for countries with multiple age groups above or below the 10-year cut-off are approximations based on the assumption that the numbers surveyed in each age group are proportionate to those in the total child population, the latter being used due to availability. Additionally, in some countries age ranges spanned the 10-year boundary, though broadly speaking the majority of children could be allocated to either the<10 years or≥10 years group.

The different dietary assessment methodologies used by the surveys also limit the validity of comparisons. As under-reporting is common and varies across methods and is affected by multiple other factors, the impact on reported intakes differs across countries and compounds difficulties in making comparisons. This is exacerbated by the exclusion of under-reporters by some countries (Austria, France, Norway), whereas other countries include under-reporters (Cyprus, Denmark, Ireland, Italy, the Netherlands, Slovenia and the UK) and the remainder did not specify.

Discrepancies in national food composition databases create further compatibility issues. The present review used sucrose as a proxy for added sugars, as surveys typically did not distinguish between the two. Consequently, intakes may differ as the number of mono- and disaccharides included varies. Not all surveys had available user guides to determine the methods used to derive nutrient values. With fibre, the Englyst method usually generates lower results than the AOAC for certain cereals, fruits, white beans and groundnuts(52). Certain micronutrients may also be derived from a narrow range of foods, making them less valid in representing population intakes. Similarly, databases do not address fortification in a common manner, as with iodine(53). This is problematic, as the severity of identified deficiencies may be misrepresented.

Future work could explore raw survey data to create common age groups and minimise the impact of inconsistencies. This would help determine whether extremes such as Slovenian macronutrient intakes are genuine differences or due to the age range covered. It would also allow the alignment of age groups with WHO RNI, increasing the accuracy of identifying deficiencies.

Conclusion

This review reported macro- and selected micronutrient intakes in children across WHO Europe using the latest available reported NDS intakes and assessed these against WHO RNI. Energy and nutrient intakes were extracted from twenty-one surveys covering a third (eighteen), mainly Western, WHO European countries. Most countries reported intakes from a good range of nutrients, particularly macronutrients, so where nutrient intakes were reported, countries generally had a sound basis to assess child nutrient status. However, TFA, n-3 and n-6 (omega) fats, added sugar and iodine were least reported. These gaps are concerning, as potential deficiencies could go undetected and nutrition policies implemented could be based on limited evidence. WHO RNI attainment was generally poor – most countries met under half of the RNI for the nutrients and age/sex groups reported, implying that widespread nutrition issues could exist across Europe. Macronutrient RNI compliance was universally poor, and although micronutrients were slightly better, attainment was worse in girls and children≥10 years. Fat and saturated fats, vitamin D, Na, total folate and Fe had the lowest compliance. Only eight countries reported intakes by socio-economic group and different indicators were used. This narrows opportunities to assess inequalities and vulnerable groups susceptible to malnutrition and limits the monitoring tools available for policy formation. Different age groups, methodologies, nutrient composition databases and under-reporting are the main limitations, potentially misrepresenting true intakes and preventing inter-country comparisons. Future work could use raw NDS data to conduct stratified analyses with consistent age groups. Governments and health bodies should continue efforts to encourage European countries to report a full range of nutrient intakes by various sociodemographic variables in a standardised format.

Acknowledgements

The present review was funded by the WHO Regional Office for Europe. Funding for the publication was received from the Government of the Russian Federation within the context of the WHO European Office for the Prevention and Control of Noncommunicable Diseases (NCD Office).

All authors have contributed to the concept and design of the research and to the writing and/or revision of the manuscript, and have approved the manuscript for submission.

The authors declare no conflict of interest. The co-authors J. J. B. and J. J. are staff members of the WHO Regional Office for Europe; however, the authors are responsible for the views expressed in this publication and they do not necessarily represent the decisions or stated policy of the WHO.

Appendix 1. Reported mean macronutrient intakes for children and adolescents in European national dietary surveys

Table A1.

Country Survey Year Energy (MJ) Energy (kcal) Protein (g) CHO (g) Sugars (g) Sucrose (g) Fibre (g) Total fat (g) Saturated fats (g) MUFA (g) PUFA (g) TFA (g) n-3 (g) n-6 (g)
Austria Austrian Nutrition Report (OSES) 2010–2012
Female: 7–9 years 8·0 1910 62 248 53 17·0 72 31·8 23·3 12·7 1·5 10·0
Female: 10–12 years 7·2 1731 61 225 48 17·0 63 28·9 21·2 9·6 1·1 8·8
Female: 13–14 years 7·5 1783 67 214 49 14·0 73 31·7 23·8 11·9 1·3 10·3
Male: 7–9 years 8·0 1920 62 245 58 18·0 73 34·1 23·5 10·7 1·3 9·6
Male: 10–12 years 8·1 1940 68 247 49 18·0 73 30·2 23·7 12·9 1·3 10·8
Male: 13–14 years 8·6 2058 72 247 51 16·0 82 34·3 27·4 16·0 1·9 12·8
Belgium Belgian Food Consumption Survey 2014–2015 2014–2015
Female: 3–5 years 5·6 1329 46 166 92 12·9 50 20·0 18·0 8·0 0·6
Female: 6–9 years 6·8 1633 56 204 105 14·2 64 25·0 23·0 11·0 0·7
Female: 10–13 years 7·6 1812 63 219 107 15·2 72 27·0 26·0 12·0 0·7
Female: 14–17 years 8·0 1904 66 223 106 15·8 76 28·0 28·0 13·0 0·8
Male: 3–5 years 5·9 1406 48 179 100 12·3 52 21·0 18·0 8·0 0·6
Male: 6–9 years 7·6 1824 63 227 120 14·3 70 28·0 26·0 11·0 0·8
Male: 10–13 years 9·0 2149 75 260 131 15·9 85 32·0 31·0 14·0 0·9
Male: 14–17 years 9·9 2369 83 280 135 17·0 92 33·0 34·0 16·0 0·9
Bulgaria National Survey on Nutrition of Infants and Children Under 5 and Family Child Rearing 2007 2007
Female: 1 year 5·0 1185 43 159 27 11·5 50 14 10·4 8·4
Female: 2 years 5·7 1370 43 159 27 11·5 50 14 10·4 8·4
Female: 3 years 6·3 1496 51 191 35 14·6 68 15 11·7 10·3
Female: 4 years 6·6 1579 51 191 35 14·6 68 15 11·7 10·3
Male: 1 year 5·0 1206 43 159 27 11·5 50 14 10·4 8·4
Male: 2 years 5·9 1409 43 159 27 11·5 50 14 10·4 8·4
Male: 3 years 6·7 1592 55 191 35 14·6 68 15 11·7 10·3
Male: 4 years 7·2 1718 55 191 35 14·6 68 15 11·7 10·3
Cyprus A study of the dietary intake of Cypriot children and adolescents aged 6–18 years 2009–2010
Female: 6–8·9 years 7·6 1811 73 223 14·6 69 27·6 30·4 9·7
Female: 9–13·9 years 7·5 1793 74 209 14·0 73 28·7 32·9 10·6
Female: 14–18·9 years 7·5 1781 73 205 14·1 74 28·3 33·6 10·7
Male: 6–8·9 years 7·8 1856 75 226 14·8 72 28·9 31·3 10·3
Male: 9–13·9 years 7·9 1898 82 221 14·7 76 29·5 34·0 11·4
Male: 14–18·9 years 9·1 2180 96 231 15·2 96 37·1 43·8 14·3
Denmark Danish Dietary Habits 2011–2013 2011–2013
Female: 4–9 years 7·7 1840 64 220 46 19·0 73 29·0 26·0 11·0 1·2
Female: 10–17 years 7·8 1864 67 222 53 17·0 73 30·0 26·0 11·0 1·1
Male: 4–9 years 8·5 2032 71 243 50 21·0 80 32·0 28·0 13·0 1·3
Male: 10–17 years 9·9 2366 90 277 67 20·0 94 38·0 34·0 14·0 1·4
Estonia National Dietary Survey 2014–2015
Female: 2–5 years 48
Female: 6–9 years 56 56 26·7 20·9 8·7 0·5 1·3 6·7
Female: 10–13 years 6·7 1602 54 214 55 14·2 61 26·6 20·4 8·9 0·5 1·2 7
Female: 14–17 years 6·6 1568 56 199 51 14·4 63 25·3 22·3 10·6 0·4 1·6 8·4
Male: 2–5 years 51
Male: 6–9 years 67 61 30·4 23·7 9·9 0·6 1·4 7·6
Male: 10–13 years 8·3 1993 73 252 59 16·3 79 32·8 27·9 12·9 0·6 2 10·2
Male: 14–17 years 9·4 2242 85 288 66 20·4 87 35·7 30·8 14·7 0·6 2·5 11·6
France INCA3 2014–2015
Female: 0–10 years 6·0 1433 53 176 95 12·7 54 24·3 17·8 6·4 0·9 4·7
Female: 11–17 years 7·6 1818 70 226 98 16·1 66 27·9 22·4 8·5 1·0 6·2
Male: 0–10 years 6·6 1574 58 199 103 13·8 57 25·7 18·9 6·6 0·8 5·0
Male: 11–17 years 8·9 2123 83 262 111 18·1 77 33·0 26·1 9·9 1·1 7·3
Germany German National Nutrition Survey II 2005–2007
Female: 14–18 years 8·8 2108 66 274 23·2 77
Male: 14–18 years 12·1 2883 94 355 26·0 110
Ireland National Pre-school Nutrition Survey 2010–2011
1 year 4·2 1005 39 126 70 25 10·5 38 17·7 13·6 4·2 0·6
2 years 4·7 1122 43 146 74 33 11·6 42 18·8 14·0 5·4 0·7
3 years 4·8 1148 43 154 76 41 12·0 41 18·9 13·8 5·5 0·6
4 years 5·3 1264 47 171 84 49 12·8 45 20·0 15·2 6·3 0·7
Ireland National Children’s Food Survey 2003–2004
Female: 5–12 years 6·7 1601 54 217 8·8 61 26·2 20·8 9·0
Female: 5–8 years 6·4 1517 52 208 8·5 58 25·6 19·6 8·3
Female: 9–12 years 7·0 1654 56 227 9·2 63 26·9 21·9 9·6
Male: 5–12 years 7·4 1759 60 246 10·0 66 28·4 22·5 9·4
Male: 5–8 years 6·8 1625 55 226 9·2 61 26·5 20·6 8·6
Male: 9–12 years 8·0 1890 64 264 10·8 70 30·3 24·3 10·2
Ireland National Teens’ Food Survey 2005–2006
Female: 13–17 years 7·1 1696 60 222 10·1 68 27·2 24·4 11·1
Female: 13–14 years 7·0 1674 59 220 9·7 67 27·0 24·2 10·7
Female: 15–17 years 7·2 1712 61 223 10·3 69 27·3 24·5 11·5
Male: 13–17 years 9·5 2256 86 293 13·1 89 36·7 31·6 14·0
Male: 13–14 years 9·0 2137 82 277 12·3 85 35·3 29·7 13·2
Male: 15–17 years 9·9 2344 88 304 13·7 92 37·7 33·0 14·7
Italy Third Italian National Food Consumption Survey INRAN-SCAI 2005–2006
All: 0–2·9 4·7 1113 42 147 71 8·2 44 16·6 19·1 4·7
All: 3–9·9 8··0 1914 74 240 86 14·4 80 25·4 37·0 9·8
Female: 10–17·9 8·7 2091 82 263 88 16·4 86 26·8 40·3 11·1
Male: 10–17·9 10·8 2576 99 327 108 18·1 105 33·1 49·0 13·7
Latvia Latvian National Food Consumption Survey 2007–2009 2007–2009
Female: 7–16 years 6·9 1660
Male: 7–16 years 8·2 1948
Netherlands Dutch National Food Consumption Survey – young children (DNFCS) 2008 2008
Female: 2–3 years 5·5 1308 43 187 119 12·0 43 16·0 1·1
Female: 4–6 years 6·2 1479 46 209 129 13·0 51 20·0 1·4
Male: 2–3 years 5·8 1375 44 196 124 13·0 46 18·0 1·2
Male: 4–6 years 6·7 1587 51 222 135 14·0 55 21·0 1·4
Netherlands Dutch National Food Consumption Survey (DNFCS) 2007–2010 2007–2010
Female: 7–8 years 8·4 2011 51 255 140 15·0 76 29·0 17·0 8·0
Female: 9–13 years 8·6 2042 63 262 141 15·9 78 29·4 20·0 9·0 1·4 11·7
Female: 14–18 years 8·5 2028 68 253 127 17·5 75 28·7 23·0 10·0 1·5 11·6
Male: 7–8 years 8·1 1929 56 258 141 16·0 71 27·0 18·0 8·0
Male: 9–13 years 10·0 2275 74 292 154 17·8 86 32·3 23·0 10·0 1·6 13·3
Male: 14–18 years 11·3 2690 83 332 164 21·4 102 37·3 27·0 11·0 1·9 16·7
Norway UNGKOST 3 2015–2016
Female: 4 years 5·5 1315 51 158 28 14·0 50 21·0 17·0 8·0
Female: 9 years 6·9 1649 63 207 51 15·0 60 25·0 20·0 9·0
Female: 13 years 7·4 1769 68 219 60 15·0 66 27·0 23·0 10·0
Male: 4 years 6·1 1458 56 176 30 16·0 54 23·0 18·0 8·0
Male: 9 years 7·8 1864 74 228 53 17·0 68 28·0 23·0 10·0
Male: 13 years 8·6 2055 83 247 64 17·0 76 31·0 27·0 11·0
Portugal National Food and Physical Activity Survey (IAN-AF) 2015–2016
Female: <10 years 5·7 1361 57·9 175 89 12·8 46 21·0 20·5 7·2 0·7 5·9
Female: 10–17 years 7·9 1872 82·8 219 88 16·1 67 28·7 27·0 11·0 1·2 10·5
Male: <10 years 5·9 1392 56·2 180 90 13·2 47 21·0 20·9 7·4 0·7 6·9
Male: 10–17 years 9·7 2303 103·5 273 107 18·2 81 34·9 31·8 13·1 1·5 13·1
Slovenia Dietary Intake of Macro- and Micronutrients in Slovenian Adolescents 2012
Female: 15–16 years 9·7 2312 86 379 195 110 31·0 82 35·0 29·0 17·0
Male: 15–16 years 12·7 3043 96 370 170 103 28·0 82 36·0 30·0 16·0
Spain ANIBES 2013
Female: 9–12 years 7·9 1893 73 209 88 12·2 82 27·5 33·6 14·0
Female: 13–17 years 7·6 1823 71 206 87 11·2 77 25·2 31·2 13·4
Male: 9–12 years 8·4 2006 81 218 94 11·5 87 29·6 35·8 14·2
Male: 13–17 years 8·9 2124 85 235 91 12·1 91 30·0 37·3 15·4
Turkey Turkey Nutrition and Health Survey 2010 (TNHS) 2010
Female: 2–5 years 5·0 1190 37 148 11·5 49 16·9 15·8 12·5 0·9 11·5
Female: 6–8 years 6·3 1510 45 193 15·8 60 19·6 19·0 16·9 1·2 15·6
Female: 9–11 years 7·0 1679 51 218 18·3 64 21·5 21·8 16·5 1·2 15·1
Female: 12–14 years 7·2 1723 51 221 18·8 68 22·1 22·6 18·5 1·3 17·2
Female: 15–18 years 7·1 1701 49 221 18·9 65 20·5 21·6 18·6 1·2 17·3
Male: 2–5 years 5·2 1253 39 152 12·0 52 17·9 16·9 13·6 1·0 12·6
Male: 6–8 years 6·6 1587 49 202 16·1 62 21·1 20·1 16·8 1·1 15·6
Male: 9–11 years 7·0 1677 52 211 17·5 66 22·4 21·8 17·6 1·2 16·3
Male: 12–14 years 8·4 2017 62 261 21·1 77 25·5 25·4 20·5 1·4 18·9
Male: 15–18 years 9·6 2288 68 300 23·2 85 28·7 29·2 21·4 1·6 19·7
UK National Diet and Nutrition Survey (NDNS) Years 1–4 2008–2012
Children: 1·5–3 years 4·8 1126 43 151 76 8·2 43 18·5 14·4 5·8 0·8 0·9 4·9
Female: 4–10 years 6·3 1489 53 205 95 10·7 56 22·3 20·0 8·7 1·1 1·3 7·4
Female: 11–18 years 6·6 1569 56 211 90 10·7 60 21·7 22·7 10·1 1·1 1·6 8·5
Male: 4–10 years 6·6 1573 57 219 100 11·5 58 23·0 21·0 9·0 1·1 1·4 7·6
Male: 11–18 years 8·3 1972 74 265 116 12·8 74 27·8 27·6 11·9 1·4 1·9 10·0

CHO, carbohydrates; TFA, trans-fatty acids.

Appendix 2. Reported mean micronutrient intakes for children and adolescents in European national dietary surveys

Table A2.

Country Survey Year Total folate (µg) Vitamin B12 (µg) Vitamin D (µg) Ca (mg) K (mg) Na (mg) Fe (mg) Iodine (µg) Zn (mg)
Austria Austrian Nutrition Report (OSES) 2010–2012
Female: 7–9 years 171 3·5 1·7 739 2259 3320 9·4 102 8·5
Female: 10–12 years 142 3·6 1·2 675 1969 3560 8·7 89 8·0
Female: 13–14 years 137 4·1 1·8 704 1867 2800 8·5 87 8·5
Male: 7–9 years 164 3·7 2·1 876 2270 3520 9·7 111 8·8
Male: 10–12 years 169 4·0 1·5 753 2215 3800 10·5 103 9·4
Male: 13–14 years 143 3·9 1·4 649 2211 3540 10·3 94 9·4
Belgium Belgian Food Consumption Survey 2014–2015 2014–2015
Female: 3–5 years 157 3·5 3·2 667 1511 6·4 114
Female: 6–9 years 174 3·6 3·2 672 1765 7·2 115
Female: 10–13 years 181 3·6 3·3 678 1905 7·7 116
Female: 14–17 years 185 3·6 3·3 684 1983 8·0 118
Male: 3–5 years 170 4·3 3·4 715 1555 7·2 111
Male: 6–9 years 189 4·4 3·4 744 2018 8·1 124
Male: 10–13 years 204 4·5 3·5 774 2318 9·4 136
Male: 14–17 years 214 4·6 3·6 799 2499 10·1 146
Bulgaria National Survey on Nutrition of Infants and Children Under 5 and Family Child Rearing 2007 2007
Female: 1 year 104 2·1 3·4 536 1400 5·0 5·2
Female: 2 years 104 2·1 3·4 536 1400 5·0 5·2
Female: 3 years 129 2·5 0·8 547 1873 6·3 6·5
Female: 4 years 129 2·5 0·8 547 1873 6·3 6·5
Male: 1 year 104 2·1 3·4 536 1400 5·0 5·2
Male: 2 years 104 2·1 3·4 536 1400 5·0 5·2
Male: 3 years 129 2·5 0·8 547 1873 6·3 6·5
Male: 4 years 129 2·5 0·8 547 1873 6·3 6·5
Cyprus A study of the dietary intake of Cypriot children and adolescents aged 6–18 years 2009–2010
Female: 6–8·9 years 930 2311 2283 10·9
Female: 9–13·9 years 876 2166 2289 10·7
Female: 14–18·9 years 859 2158 2294 10·4
Male: 6–8·9 years 957 2337 2331 11·4
Male: 9–13·9 years 929 2364 2515 11·5
Male: 14–18·9 years 1028 2515 2924 13·0
Denmark Danish Dietary Habits 2011–2013 2011–2013
Female: 4–9 years 270 5·1 2·5 966 2500 2800 8·4 210 8·9
Female: 10–17 years 254 4·3 2·4 910 2500 3000 8·3 213 9·1
Male: 4–9 years 289 5·6 2·8 1052 2700 3100 9·4 233 9·8
Male: 10–17 years 307 6·0 3·1 1183 3100 3900 10·8 249 12·4
Estonia National Dietary Survey 2014–2015
Female: 2–5 years 134 3·7 2·0 640 2300 1056 7·6 103 6·3
Female: 6–9 years 155 3·9 2·1 724 2700 1299 9·0 116 7·3
Female: 10–13 years 149 4·2 1·8 715 2600 1467 9·5 116 7·0
Female: 14–17 years 162 4·5 2·5 630 2700 1434 9·6 104 7·4
Male: 2–5 years 135 3·6 1·9 664 2500 1171 8·0 107 6·8
Male: 6–9 years 175 6·4 3·1 861 3000 1549 11·0 148 8·9
Male: 10–13 years 182 5·5 3·3 871 3100 1990 11·8 144 9·5
Male: 14–17 years 201 5·4 3·2 907 3800 2196 13·2 157 11·0
France INCA3 2014–2015
Female: 0–10 years 228 3·5 6·4 801 2020 1691 7·7 110 6·6
Female: 11–17 years 270 3·9 2·8 859 2538 2352 8·9 122 7·7
Male: 0–10 years 243 3·7 5·5 857 2224 1860 8·7 121 7·0
Male: 11–17 years 300 5·0 3·0 996 2814 2832 10·7 146 9·6
Germany German National Nutrition Survey II 2005–2007
Female: 14–18 years 340 4·0 2·0 1023 3011 2471 12·1 171 9·3
Male: 14–18 years 410 6·3 2·7 1277 3655 3535 15·6 231 12·7
Ireland National Pre-school Nutrition Survey 2010–2011
1 year 159 4·1 4·2 840 1716 918 7·0 182 5·4
2 years 180 4·2 3·4 786 1724 1186 7·6 162 5·4
3 years 188 3·8 3·0 718 1732 1250 7·2 139 5·2
4 years 189 4·0 2·8 748 1830 1421 7·8 142 5·5
Ireland National Children’s Food Survey 2003–2004
Female: 5–12 years 207 4·2 2·3 808 8·5 6·2
Female: 5–8 years 204 4·3 2·2 815 8·4 6·0
Female: 9–12 years 210 4·1 2·3 801 8·7 6·4
Male: 5–12 years 243 4·7 2·2 918 10·3 7·1
Male: 5–8 years 224 4·3 2·3 869 9·3 6·4
Male: 9–12 years 261 5·0 2·2 965 11·2 7·6
Ireland National Teens’ Food Survey 2005–2006
Female: 13–17 years 230 4·2 2·3 738 10·7 7·2
Female: 13–14 years 221 4·1 2·3 725 12·4 7·0
Female: 15–17 years 236 4·2 2·4 748 9·4 7·2
Male: 13–17 years 320 6·0 3·0 1070 14·1 10·2
Male: 13–14 years 396 6·0 2·8 1004 12·3 10·0
Male: 15–17 years 338 6·1 3·1 1118 15·5 10·3
Italy Third Italian National Food Consumption Survey INRAN-SCAI 2005–2006
All: 0–2·9 2·6 1·8 664 1471 5·4 5·6
All: 3–9·9 5·7 2·0 749 2441 9·4 9·9
Female: 10–17·9 6·5 2·4 770 2737 10·6 10·9
Male: 10–17·9 6·9 2·6 892 3123 12·2 13·3
Latvia Latvian National Food Consumption Survey 2007–2009 2007–2009
Female: 7–16 years 2000
Male: 7–16 years 2840
Netherlands Dutch National Food Consumption Survey – young children (DNFCS) 2008 2008
Female: 2–3 years 104 2·6 1·8 734 6·1 5·0
Female: 4–6 years 107 2·5 1·9 748 6·7 5·2
Male: 2–3 years 107 2·6 1·8 788 6·1 5·2
Male: 4–6 years 119 2·9 2·2 854 7·1 5·9
Netherlands Dutch National Food Consumption Survey (DNFCS) 2007–2010 2007–2010
Female: 7–8 years 164 3·3 2·3 817 2357 7·8 7·7
Female: 9–13 years 179 3·3 2·4 892 2502 2257 8·2 141 8·2
Female: 14–18 years 207 3·3 2·4 870 2622 2336 8·7 150 8·7
Male: 7–8 years 161 3·0 2·3 878 2362 8·1 7·5
Male: 9–13 years 202 3·7 2·8 943 2757 2544 9·2 164 9·1
Male: 14–18 years 264 4·5 3·2 1093 3314 3064 10·6 193 11·1
Norway UNGKOST 3 2015–2016
Female: 4 years 157 4·5 3·5 682 2000 1800 6·0
Female: 9 years 175 4·5 3·6 756 2200 2220 7·0
Female: 13 years 183 4·9 3·5 753 2300 2300 8·0
Male: 4 years 169 4·7 3·3 757 2200 1900 7·0
Male: 9 years 192 5·3 4·1 866 2500 2500 9·0
Male: 13 years 210 5·9 4·3 918 2700 2700 9·0
Portugal National Food and Physical Activity Survey (IAN-AF) 2015–2016
Female: <10 years 191·5 2·7 6·3 781 2504 1638 8·5 6·9
Female: 10–17 years 222·4 4·5 3·5 757 2891 2731 10·7 9·7
Male: <10 years 192·9 2·7 6·7 851 2539 1643 8·9 7·1
Male: 10–17 years 251·8 5·1 4·3 922 3409 3255 12·1 12·1
Slovenia Dietary Intake of Macro- and Micronutrients in Slovenian Adolescents 2012
Female: 15–16 years 276 5·9 4·0 1167 3770 4191 16·0 205 12·4
Male: 15–16 years 255 6·7 4·0 1094 3494 4059 16·0 181 13·5
Spain ANIBES 2013
Female: 9–12 years
Female: 13–17 years
Male: 9–12 years
Male: 13–17 years
Turkey Turkey Nutrition and Health Survey 2010 (TNHS) 2010
Female: 2–5 years 188 2·0 0·9 515 1593 971 6·6 44 5·6
Female: 6–8 years 241 2·2 1·1 540 1925 1324 8·3 50 7·1
Female: 9–11 years 277 2·3 0·9 549 2087 1587 9·6 52 7·9
Female: 12–14 years 284 2·1 1·0 545 2049 1636 9·6 52 8·0
Female: 15–18 years 284 2·3 0·8 562 2059 1560 9·7 54 8·0
Male: 2–5 years 195 2·3 0·9 549 1675 1019 7·0 47 6·1
Male: 6–8 years 243 2·9 1·6 553 1924 1453 8·7 51 7·5
Male: 9–11 years 281 2·9 1·0 554 2039 1599 9·3 53 8·1
Male: 12–14 years 344 3·4 1·2 603 2388 2009 11·5 56 9·5
Male: 15–18 years 359 3·1 1·1 697 2430 2428 12·1 68 10·5
UK National Diet and Nutrition Survey (NDNS) Years 1–4 2008–2012
Children: 1·5–3 years 150 3·9 1·9 773 1796 1307 6·3 142 5·2
Female: 4–10 years 188 3·7 1·9 783 2084 1782 8·4 130 6·2
Female: 11–18 years 186 3·5 1·9 670 2065 2600 8·4 109 6·3
Male: 4–10 years 201 4·0 2·0 823 2211 1902 9·0 141 6·6
Male: 11–18 years 233 4·7 2·4 889 2536 2960 10·7 141 8·3

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