Literature DB >> 35059184

Prevalence and socio-economic determinants of inadequate dietary diversity among adolescent girls and boys in Bangladesh: findings from a nationwide cross-sectional survey.

Fahmida Akter1, Md Mokbul Hossain1, Abu Ahmed Shamim1, Md Showkat Ali Khan1, Mehedi Hasan1, Abu Abdullah Mohammad Hanif1, Moyazzam Hossaine1, Nushrat Jahan Urmy1, Mohammad Aman Ullah2, Samir Kanti Sarker2, S M Mustafizur Rahman2, Dipak Kumar Mitra3, Md Mofijul Islam Bulbul2, Malay Kanti Mridha1.   

Abstract

Malnutrition among adolescents is often associated with inadequate dietary diversity (DD). We aimed to explore the prevalence of inadequate DD and its socio-economic determinants among adolescent girls and boys in Bangladesh. A cross-sectional survey was conducted during the 2018-19 round of national nutrition surveillance in Bangladesh. Univariate and multivariable logistic regression was performed to identify the determinants of inadequate DD among adolescent girls and boys separately. This population-based survey covered eighty-two rural, non-slum urban and slum clusters from all divisions of Bangladesh. A total of 4865 adolescent girls and 4907 adolescent boys were interviewed. The overall prevalence of inadequate DD was higher among girls (55⋅4 %) than the boys (50⋅6 %). Moreover, compared to boys, the prevalence of inadequate DD was higher among the girls for almost all socio-economic categories. Poor educational attainment, poor maternal education, female-headed household, household food insecurity and poor household wealth were associated with increased chances of having inadequate DD in both sexes. In conclusion, more than half of the Bangladeshi adolescent girls and boys consumed an inadequately diversified diet. The socio-economic determinants of inadequate DD should be addressed through context-specific multisectoral interventions.
© The Author(s) 2021.

Entities:  

Keywords:  Adolescent boys; Adolescent girls; Bangladesh; Inadequate dietary diversity

Mesh:

Year:  2021        PMID: 35059184      PMCID: PMC8727722          DOI: 10.1017/jns.2021.89

Source DB:  PubMed          Journal:  J Nutr Sci        ISSN: 2048-6790


Introduction

Adolescence, the second decade of life, is the transition period from childhood towards adulthood and considered as a window of opportunity to build strong foundation for healthy and productive adulthood and consequently the health and wellbeing of the next generation(. In this era of fast demographic, epidemiological and nutritional transitions, adolescents are experiencing a complex burden of malnutrition worldwide(. In Bangladesh and other developing countries, adolescents are suffering from a very high prevalence of undernutrition, micronutrient deficiencies, overweight or obesity(. Poor diet, in terms of quantity and diversity, is one of the major causes of all forms of malnutrition at all stages of the life cycle. Evidence suggests that dietary diversity (DD), ‘an increase in the variety of foods across and within food groups over a reference period’(, reflects dietary quality in terms of nutrient adequacy of a diet at an individual level(. Food-based dietary guidelines recommend the intake of more diversified foods to address malnutrition and prevent diet-related chronic diseases(. Globally, adolescent diets are characterised by inadequately diversified food, less nutrient-dense food, more processed foods and beverages(. In low- and middle-income countries (LMICs), inadequate DD is more prevalent across all age groups due to the ubiquity of a large proportion of starchy staple in the whole diets( and similarly, in Bangladesh, the adolescent diets are poor in both diversity and micronutrient content(. Besides, systematic reviews show that in LMICs, a wide range of socio-economic determinants at the individual, parental, household, environmental and macro-system levels in different contexts influence the diversity and micronutrient contents of the diets among adolescents(. To date, only a limited number of studies have been conducted considering DD as the main outcome and explored factors associated with it among adolescents in Bangladesh. Moreover, these studies were mostly focused on girls(, school-based adolescents( or pregnant adolescents(. These studies had small sample sizes and only a few studies focused on the determinants of inadequate DD(. None of these studies included adolescent boys as the study population. Therefore, population-weighted, nationally representative data are scarce on the prevalence of inadequate DD and its determinants among adolescent girls and boys. Given this reality, we intended to explore the national prevalence of inadequate DD and factors associated with inadequate DD among adolescent girls and boys in Bangladesh.

Methods

Study design and settings

Since 1990, the government of Bangladesh has been implementing nutrition and food security surveillance among women and children. In the 2018–19 round of the surveillance, we included additional population groups, for example, adolescent boys and girls, adult males and elderly people. In this survey, we covered all types of geographical areas, that is, rural, non-slum urban and slums from all eight administrative divisions of the country. We enrolled participants from eighty-two clusters (fifty-seven rural, fifteen non-slum urbans and ten slums) to generate divisionally and nationally representative estimates of different indicators, including the DD of adolescent boys and girls. Adolescents were interviewed after obtaining appropriate informed written assent and consent from the guardians (for 10 to <18 years old adolescents) and informed written consent (for ≥18 years old adolescents).

Sampling technique

Different sampling designs were employed to select study sites from rural, non-slum urban and slum areas and to draw a representative sample of Bangladesh. A four-stage sampling procedure was employed to select clusters in rural areas. First, two districts were randomly selected from each of the eight divisions, and one sub-district was randomly selected from each of the selected districts. Then, two unions (the smallest administration unit) were randomly selected from each of the sub-district and were divided into segments with 250–400 households keeping the geographical demarcation of villages in the unions uninterrupted. Finally, two segments from each of the selected unions were randomly picked as the final data collection cluster (total 64). In non-slum urban areas, sixteen wards (lowest administrative unit in the urban areas) from eight divisions were selected randomly. Then one mahalla/segment of 250–400 households was randomly picked from the list of mahalla/segments of each selected ward. Thus, a total of sixteen clusters (mahalla/segment) were selected from the urban areas, and data were collected from fifteen urban clusters. In slum settings, ‘Census of Slum Areas and Floating Population 2014’ were used to select the data collection clusters(. A total of ten slum clusters, each with ≥300 households from eight divisions (two from Dhaka and two from Chattogram and one from each remaining six divisions), were randomly selected.

Study participants and sample size

The sample size was calculated to obtain divisionally, nationally as well as slums representative prevalence estimates for the key variables of the study. For adolescents and other population groups, the prevalence (p) of key variables such as nutritional status and DD varied from 4 to 98 %. Considering the probability of Type I error, α = 0⋅05; allowable margin of error, d = 0⋅05 or p/2 when P ≤ 0⋅1; design effect, DEF = 1⋅61, sixty-two adolescent boys and sixty-two adolescent girls were needed from each cluster. Thus, the estimated sample size was 5580 for adolescent boys and 5580 for adolescent girls from 90 clusters. Due to an administrative embargo and financial constraints, data were finally collected from eighty-two clusters. The data collection period of the study was from October 2018 to October 2019. In each cluster, all the households were listed to generate a sampling frame for each eligible participant from all six population groups (0–5 years old children, 10–19 years old adolescent girls, 10–19 years old adolescent boys, 20–59 years old women, 20–59 years old men and ≥60 years old persons). A total of 10 529 adolescent girls and 10 211 adolescent boys were listed from 25 371 households in 82 clusters and from them, 5084 boys (62 × 82) and 5084 girls (62 × 82) were randomly selected (62 girls and 62 boys from each cluster). If one household had more than one eligible participant from a population group, one of them was selected randomly. Five data collection teams, each comprising one supervisor and four to five data collectors, performed data collection and anthropometric measurements. As some of the randomly selected boys and girls were unavailable at home during the interview, and some refused the interviews, a total of 4907 adolescent boys and 4949 adolescent girls were enrolled in this survey. Among the adolescents, eighty-four girls were found pregnant during the data collection period. They were excluded from our analysis as pregnancy may influence food consumption. Therefore, the final number of adolescent girls was in 4865.

Data collection techniques

We collected data using a structured questionnaire by face-to-face interviews. Physical measurements, height in cm (using locally made stadiometer) and weight in kg (using TANITA, model UM-070 weighing scale) of the adolescents were measured. Three measurements for height and three measurements for weight were taken over light clothing after confirming the privacy and comfort of the participants. All anthropometric measurements were taken based on WHO guidelines, as specified in the FANTA anthropometry manual(. Data were collected electronically using a customised SurveyCTO on a tablet computer (Samsung Galaxy Tab A7) application and were uploaded to the system every day at the end of data collection.

Quality control

Data collectors received a 5-d training on interview tools and techniques, physical measurements, calibration and maintenance of data collection instruments, and went through a standardisation process. Data collection questionnaires were pre-tested and modified based on the pre-test findings. About 5 % of the interviewed households were randomly re-interviewed, and another 5 % of the randomly selected interviews were observed by the supervisors to ensure data quality. Besides, interim analyses were done to check the quality of the data and we found that collected data had internal consistency and were in alignment with similar studies from Bangladesh.

Outcome variable

Our outcome variable of interest was inadequate DD among adolescent boys and girls. DD is an indicator of dietary intake at the individual level, which describes how diversified food a person consumes(. Minimum dietary diversity for women (MDD-W) is a population-level, simple and dichotomous indicator to assess DD at national and subnational levels(. The present study adopted the MDD-W questionnaire to collect dietary data using a list-based recall method on twenty-four food categories consumed in the last 24 h. These food categories were aggregated during analysis into the ten food groups ((1) grains, white roots and tubers and plantains; (2) pulses: beans, peas and lentils; (3) nuts and seeds; (4) dairy; (5) meat, poultry and fish; (6) eggs; (7) dark green leafy vegetables; (8) other vitamin A-rich fruits and vegetables; (9) other vegetables and (10) other fruits) following MDD-W guideline(. Regarding consumption of mixed dishes, we asked the respondents for all the ingredients included in that dish and record separately in the food list. We also considered the fact that whether the ingredient is usually consumed ‘large enough’ to be included as a separate food item or consumed usually very small amount to be classified as ‘Condiments and seasonings’ according to MDD-W guideline(. We used the same tool to collect dietary data and the same cut-off point for adolescent girls as well as for boys to define inadequate DD since there is no separate tool available to measure DD among the boys. A girl or boy was categorised as having inadequate DD when s/he consumed foods from four or less food groups from the ten food groups in the last 24 h.

Explanatory variables

We carried out a literature review to identify the variables that can be the possible determinants of DD(. From our dataset, we identified the following variables age, education, nutritional status, maternal and paternal education, the place of residence, religion, household size, household headship, household food security status and household wealth status (Table 1). In our study, we collected individual-level information from the adolescents, and household head was the respondent for parental-level and household-level information.
Table 1.

Different categories/measurements of explanatory variables of the present study

VariablesCategories/measurements
Age10–14 years, 15–17 years, 18–19 years
EducationNo education, primary incomplete (grades 1–4), primary complete (grade 5), secondary incomplete (grades 5–9), secondary complete or higher (grades 10 or higher)
Nutritional statusBody mass index or BMI for age (BAZ): Thin (z-scores < −2sd), normal weight (≥−2sd z-scores ≤ +1sd), overweight and/or obese (z-scores >+1sd)
Maternal educationSame categories as for education level of adolescent
Paternal educationSame categories as for education level of adolescent
Place of residenceRural, non-slum urban and slums
ReligionIslam, other than Islam (Buddhism, Christianity and Hinduism)
Household size≤4 members, ≥5 members
Household headshipMale-headed, female-headed
Household food security statusFood secure, mildly food insecure, moderately food insecure, severely food insecure
Household wealth statusPoorest, poorer, middle, richer, richest
Different categories/measurements of explanatory variables of the present study We used the Household Food Insecurity Access Scale (HFIAS) questionnaire developed by the Food and Nutrition Technical Agency to collect data on behaviours and attitudes related to three domains of food insecurity (access) experiences including (1) anxiety and uncertainty about the household food supply; (2) insufficient food quality includes variety and preferences of the type of food and (3) insufficient food intake and its physical consequences to estimate the prevalence of food insecurity at the household level in Bangladesh(. Based on this guideline, we asked nine occurrence questions to the respondents on perceptions of their households’ food vulnerability and on their behavioural responses to food insecurity with a recall period of 4 weeks (30 d) providing the options zero to three indicating frequency of the occurrence as never, rarely, sometimes and often, respectively. We used HFIA prevalence indicator to categorises households into four levels of household food insecurity (access): food secure, and mild, moderately and severely food insecure. For other variables of data collection, standard questions used by MEASURE DHS (Monitoring and Evaluation to Assess and Use Results Demographic and Health Surveys) for Demographic Health Surveys were followed(. For example, wealth index, a measure of relative wealth at the household level, was assessed through some specific assets, such as availability of amenities (electricity, solar electricity, radio, television, telephone, mobile, refrigerator, table/chair, watch/wall clock, almirah/wardrobe, electric fan, bicycle, motorcycle/motor scooter, car/truck, boat, water pump, etc.), household cooking fuel used (electricity, LPG, piped natural gas, kerosene, coal, wood, straw/grass/leaves, animal dung, bio-gas), main source of drinking water, type of toilet used, household materials of floor, walls and roof. All of these household characteristics and assets were analysed using principal component analysis. A composite wealth index was assessed using a DHS (Demographic and Health Survey) method consisting of area-specific indexes combined into a national model( The wealth index was divided into five quantiles. Categories for household size was done based on the national mean household size in Bangladesh, which is 4⋅5(. That's why we kept it as ‘≤4 members’ and ‘≥5 members’. Regarding nutritional status, body mass index or BMI for age (BAZ) was calculated for adolescents using age- and gender-specific WHO growth charts in AnthroPlus software and adolescents were categorised as thin, normal weight and overweight and/or obese(.

Statistical analysis

Descriptive analyses (frequency distribution and percentage) were performed to report socio-economic and demographic information of the adolescent girls and boys. Pearson's χ2 test was administered using weighted data to estimate and compare the distribution of inadequate DD between boys and girls within different categories of each explanatory variable. All tests were two-tailed and a P-value of <0⋅05 was considered as statistically significant. Binary logistic regression was done to assess the relationship of inadequate DD with each of the explanatory variables separately. The explanatory variables with P-value ≤0⋅2 in the univariate model were included in the final multivariable logistic regression model(. Multi-collinearity was checked using the ‘correlation matrix’ to identify the independent variables with higher correlation, and the variables with correlation coefficient ≥0⋅5 were excluded (age and paternal education: as these variables were highly correlated with educational attainment of adolescents and maternal education, respectively) before running the multivariable logistic regression. After considering P-value during univariate analyses and multi-collinearity, education, maternal education, place of residence, religion (only for boys), household headship, household food insecurity status and household wealth were included in the multivariable logistic regression model. The crude odds ratio (cOR), adjusted odds ratio (aOR) and 95 % CI of OR were estimated, and a P-value of <0⋅05 was considered as statistically significant. All statistical analyses were performed using the statistical software package Stata (version 13.0).

Research ethics

Ethical approval from the Institutional Review Board (IRB) of the BRAC James P Grant School of Public Health, BRAC University, Dhaka, Bangladesh, was sought (reference number 2018-020-IR) before conducting the study. Community sensitisation meetings with local leaders and the representatives from potential respondents were done to get the community consent before stating data collection in an area. Written informed consent (assent for 10–17 years old adolescents and informed consents from their guardians) were taken prior to the interview. Privacy, confidentiality and anonymity were fully maintained throughout the research process.

Results

Background characteristics of the respondents

Table 2 outlines the detailed socio-economic and demographic characteristics of adolescent boys and girls. A higher proportion of the adolescent boys (56⋅8 %) and girls (54⋅9 %) belonged to the early adolescent group (10–14 years). In our study, the girls were better educated than boys. Regarding thinness, the proportion among boys was higher compared to the proportion among girls (28⋅5 % v. 18⋅9 %). Approximately one in every ten adolescent boys and girls were overweight and/or obese (8⋅7 % v. 10⋅5 %). Moreover, 42⋅4 % of households experienced any food insecurity, with 12⋅2 % households reporting severe food insecurity.
Table 2.

Distribution of adolescent boys and girls by socio-demographic characteristic

CharacteristicsAll adolescents (N 9772)Adolescent boys (n 4907)Adolescent girls (n 4865)
N%an%n%
Age group (years)
10–14546255⋅89278956⋅84267354⋅94
15–17302630⋅97152431⋅06150230⋅87
18–19128413⋅1459412⋅1169014⋅18
Educational attainment
No education2192⋅241613⋅28581⋅19
Primary incomplete (grades 1–4)260126⋅62151830⋅94108322⋅26
Primary complete (grade 5)137614⋅0865813⋅4171814⋅76
Secondary incomplete (grades 6–9)432244⋅23197340⋅21234948⋅28
Secondary complete or above (grade 10 or above)125412⋅8359712⋅1765713⋅50
Nutritional status (BAZ)
Thin231523⋅69139728⋅4791818⋅87
Normal651966⋅71308162⋅79343870⋅67
Overweight and/or obese9389⋅604298⋅7450910⋅46
Maternal education
No education366537⋅51183537⋅40183037⋅62
Primary incomplete (grades 1–4)126012⋅8963312⋅9062712⋅89
Primary complete (grade 5)171117⋅5184417⋅2086717⋅82
Secondary incomplete (grades 6–9)211721⋅66108122⋅03103621⋅29
Secondary complete or above (grade 10 or above)101910⋅4351410⋅4750510⋅38
Paternal education
No education409641⋅92202641⋅29207042⋅55
Primary incomplete (grades 1–4)104110⋅6553210⋅8450910⋅46
Primary complete (grade 5)145114⋅8571314⋅5373815⋅17
Secondary incomplete (grades 6–9)169317⋅3387517⋅8381816⋅81
Secondary complete or above (grade 10 or above)149115⋅2676115⋅5173015⋅01
Place of residence
Rural682869⋅87343870⋅06339069⋅68
Non-slum urban175217⋅9387317⋅7987918⋅07
Slum119212⋅2059612⋅1559612⋅25
Religion
Islam853087⋅3427287⋅1425887⋅5
Other than Islamb124212⋅763512⋅960712⋅5
Household size
≤4 members530054⋅20272555⋅5257552⋅90
≥5 members447245⋅80218244⋅5229047⋅10
Household headship
Female-headed279428⋅61140528⋅65138928⋅56
Male-headed697371⋅39349971⋅35347471⋅44
Household food insecurity status
Food secure562757⋅61281757⋅44281057⋅78
Mild food insecurity246025⋅19124425⋅37121625⋅01
Moderate food insecurity4935⋅052485⋅062455⋅04
Severe food insecurity118712⋅1559512⋅1359212⋅17
Household wealth
Poorest195820⋅0598420⋅0797420⋅03
Poorer195520⋅0298120⋅0097420⋅03
Middle195320⋅0098120⋅0097219⋅99
Richer195820⋅0598320⋅0497520⋅05
Richest194319⋅8997519⋅8896819⋅91

Column percentages.

Buddhism, Christianity and Hinduism.

Distribution of adolescent boys and girls by socio-demographic characteristic Column percentages. Buddhism, Christianity and Hinduism.

Socio-demographic distribution of inadequate DD among adolescents

The weighted prevalence of inadequate DD among adolescent boys and girls across the background characteristics is summarised in Table 3. The study revealed that, nationally, the prevalence of inadequate DD significantly (P = 0⋅001) varied by sex, and the prevalence was higher among girls (55⋅4 %) than boys (50⋅6 %). Although when adolescents were categorised in three age groups, the inadequate DD prevalence was significantly higher only among girls of 15–17 years age group compared to the boys of the same age (girls 58⋅5 % v. boys 47⋅5 %, P = 0⋅002). The DD score for boys was higher than girls (4⋅49 ± 1⋅65 v. 4⋅39 ± 1⋅61) and the overall score was 4⋅44 ± 1⋅63. A higher prevalence of inadequate DD was found among adolescents who had no education (68⋅6 %), were thin (54⋅7 %), lived in a slum (64⋅5 %), lived in a household with >4 members (54⋅7 %), and belonged to a female-headed household (58⋅0 %) compared to their respective counterparts. These findings were applicable for boys and girls separately, though the prevalence differed between girls and boys within the same variable categories in most cases. Regarding parental education, a lower prevalence of inadequate was observed among adolescents with highly educated mothers and fathers. Compared to adolescents from food-secured households, the prevalence of inadequate DD was observed higher among adolescents from households with any (mild to severe) food insecurity.
Table 3.

Distribution of inadequate DD among adolescent boys and adolescent girls by socio-economic characteristics

CharacteristicsInadequate DD % [95 %CI]P-value*
All adolescents (N 9772)Adolescent boys (n 4907)Adolescent girl (n 4865)
Overall53⋅02 [47⋅28, 58⋅67]50⋅63 [44⋅29, 56⋅95]55⋅42 [50⋅03, 60⋅70]0⋅001
Age group (years)
10–1453⋅08 [46⋅74, 59⋅33]51⋅80 [44⋅63, 58⋅90]54⋅40 [48⋅36, 60⋅31]0⋅189
15–1753⋅01 [47⋅07, 58⋅88]47⋅54 [40⋅72, 54⋅46]58⋅52 [51⋅75, 64⋅98]0⋅002
18–1952⋅69 [46⋅14, 59⋅15]52⋅80 [44⋅61, 60⋅85]52⋅58 [43⋅72, 61⋅29]0⋅968
Educational attainment
No education68⋅62 [57⋅07, 78⋅26]66⋅87 [53⋅46, 78⋅01]77⋅22 [51⋅41, 91⋅57]0⋅436
Primary incomplete (grades 1–4)56⋅54 [48⋅02, 64⋅69]54⋅76 [45⋅53, 63⋅68]58⋅94 [50⋅55, 66⋅84]0⋅086
Primary complete (grade 5)47⋅88 [39⋅73, 56⋅14]43⋅77 [33⋅16, 54⋅98]51⋅99 [44⋅74, 59⋅17]0⋅081
Secondary incomplete (grades 6–9)53⋅53 [48⋅69, 58⋅31]50⋅42 [44⋅59, 56⋅24]56⋅09 [51⋅34, 60⋅72]0⋅007
Secondary complete or above (grade 10 or above)46⋅62 [39⋅73, 53⋅64]44⋅45 [37⋅48, 51⋅64]48⋅71 [40⋅18, 57⋅32]0⋅259
Nutritional status (BAZ)
Thin54⋅65 [46⋅51, 62⋅54]53⋅60 [44⋅26, 62⋅69]56⋅25 [48⋅48, 63⋅73]0⋅4294
Normal52⋅63 [47⋅21, 57⋅99]49⋅15 [43⋅40, 54⋅92]55⋅73 [50⋅19, 61⋅13]0⋅0001
Overweight and/or obese50⋅90 [44⋅99, 56⋅79]51⋅25 [41⋅97, 60⋅44]50⋅64 [42⋅96, 58⋅30]0⋅9216
Maternal education
No education54⋅12 [46⋅45, 61⋅59]51⋅49 [42⋅63, 60⋅26]56⋅85 [49⋅71, 63⋅71]0⋅057
Primary incomplete (grades 1–4)58⋅20 [51⋅21, 64⋅88]55⋅39 [47⋅44, 63⋅08]61⋅23 [53⋅71, 68⋅26]0⋅085
Primary complete (grade 5)51⋅90 [45⋅25, 58⋅48]48⋅43 [40⋅86, 56⋅07]55⋅21 [48⋅30, 61⋅92]0⋅026
Secondary incomplete (grades 6–9)53⋅07 [47⋅11, 58⋅95]50⋅80 [43⋅74, 57⋅83]55⋅32 [48⋅60, 61⋅85]0⋅190
Secondary complete or above (grade 10 or above)40⋅83 [34⋅37, 47⋅62]41⋅70 [33⋅94, 49⋅90]40⋅02 [30⋅82, 49⋅98]0⋅781
Paternal education
No education53⋅84 [46⋅48, 61⋅04]49⋅68 [41⋅64, 57⋅73]57⋅90 [50⋅98, 64⋅53]<0⋅001
Primary incomplete (grades 1–4)58⋅98 [53⋅08, 64⋅64]60⋅75 [52⋅68, 68⋅27]57⋅03 [49⋅63, 64⋅13]0⋅457
Primary complete (grade 5)53⋅74 [46⋅20, 61⋅11]51⋅64 [42⋅08, 61⋅08]55⋅94 [48⋅91, 62⋅74]0⋅276
Secondary incomplete (grades 6–9)50⋅81 [45⋅10, 56⋅51]46⋅02 [39⋅04, 53⋅17]55⋅88 [49⋅07, 62⋅48]0⋅016
Secondary complete or above (grade 10 or above)46⋅27 [39⋅77, 52⋅91]49⋅60 [41⋅01, 58⋅23]43⋅18 [35⋅77, 50⋅90]0⋅212
Place of residence
Rural53⋅00 [47⋅01, 58⋅90]50⋅51 [43⋅92, 57⋅09]55⋅51 [49⋅85, 61⋅03]0⋅001
Non-slum urban51⋅93 [40⋅74, 62⋅92]52⋅41 [37⋅45, 66⋅95]51⋅48 [42⋅24, 60⋅63]0⋅855
Slum64⋅54 [59⋅87, 68⋅95]61⋅14 [57⋅14, 65⋅00]67⋅80 [60⋅07, 74⋅66]0⋅069
Religion
Islam52⋅90 [46⋅63, 59⋅07]50⋅20 [43⋅15, 57⋅25]55⋅59 [49⋅81, 61⋅23]0⋅002
Other than Islama53⋅90 [47⋅08, 60⋅58]53⋅71 [45⋅41, 61⋅81]54⋅10 [46⋅63, 61⋅39]0⋅922
Household size
≤4 members51⋅37 [44⋅92, 57⋅77]48⋅92 [42⋅26, 55⋅62]54⋅1 [47⋅27, 60⋅78]0⋅011
≥5 members54⋅65 [48⋅77, 60⋅40]52⋅5 [45⋅77, 59⋅14]56⋅61 [51⋅09, 61⋅97]0⋅021
Household headship
Female-headed57⋅99 [51⋅61, 64⋅11]57⋅48 [48⋅90, 65⋅63]58⋅49 [52⋅65, 64⋅11]0⋅778
Male-headed51⋅41 [45⋅25, 57⋅53]48⋅43 [41⋅92, 55⋅00]54⋅43 [48⋅15, 60⋅57]0⋅001
Household food security status
Food secure49⋅86 [43⋅76, 55⋅97]47⋅38 [40⋅45, 54⋅41]52⋅31 [46⋅57, 57⋅98]0⋅011
Mild food insecurity52⋅99 [45⋅06, 60⋅77]51⋅64 [43⋅75, 59⋅44]54⋅36 [45⋅70, 62⋅78]0⋅259
Moderate food insecurity68⋅32 [57⋅37, 77⋅56]63⋅13 [47⋅20, 76⋅64]73⋅70 [61⋅48, 83⋅10]0⋅205
Severe food insecurity61⋅48 [56⋅14, 66⋅56]58⋅01 [52⋅01, 63⋅78]65⋅28 [59⋅39, 70⋅73]0⋅018
Household wealth
Poorest55⋅77 [47⋅71, 63⋅53]55⋅54 [46⋅23, 64⋅48]56⋅01 [47⋅19, 64⋅45]0⋅911
Poorer53⋅22 [45⋅36, 60⋅93]50⋅12 [41⋅71, 58⋅52]56⋅37 [48⋅60, 63⋅84]0⋅011
Middle57⋅23 [51⋅95, 62⋅35]53⋅22 [46⋅74, 59⋅59]60⋅96 [55⋅38, 66⋅28]0⋅014
Richer49⋅49 [43⋅10, 55⋅90]43⋅43 [36⋅90, 50⋅19]55⋅78 [48⋅59, 62⋅74]0⋅000
Richest46⋅28 [40⋅05, 52⋅62]48⋅84 [41⋅48, 56⋅26]43⋅73 [37⋅28, 50⋅40]0⋅121

P-value is between boys and girls of same variable categories.

Buddhism, Christianity and Hinduism.

Distribution of inadequate DD among adolescent boys and adolescent girls by socio-economic characteristics P-value is between boys and girls of same variable categories. Buddhism, Christianity and Hinduism.

Determinants of inadequate DD among adolescents

The determinants of inadequate DD among adolescents and the strength of the association as revealed by crude and adjusted odds ratios are presented in Table 4 (for boys) and Table 5 (for girls). In the unadjusted analyses, education, maternal education, paternal education, place of residence, household headship, household food insecurity status, and household wealth were identified as significantly associated with inadequate DD among both boys and girls. Among these factors, education, maternal education, household headship, household food insecurity status, and household wealth were remained as significant predictors for inadequate DD after adjusting all the potential covariates in the final model for both boys and girls.
Table 4.

Multivariable logistic regression analysis on the socio-economic factors influencing inadequate DD among adolescent boys

CharacteristicsUnadjustedAdjusteda
cOR95 % CIP-valueaOR95 % CIP-value
Age group (years)
10–141⋅000⋅84, 1⋅200⋅977Not applicable
15–171⋅020⋅84, 1⋅230⋅854
18–191⋅00Ref.
Education
No education2⋅411⋅68, 3⋅47<0⋅0011⋅781⋅22, 2⋅580⋅003
Primary incomplete (grades 1–4)1⋅651⋅36, 2⋅00<0⋅0011⋅411⋅15, 1⋅710⋅001
Primary complete (grade 5)1⋅331⋅07, 1⋅660⋅0121⋅160⋅93, 1⋅460⋅193
Secondary incomplete (grades 6–9)1⋅241⋅03, 1⋅490⋅0241⋅130⋅94, 1⋅370⋅196
Secondary complete or above (grade 10 or above)1⋅00Ref.1⋅00Ref.
Maternal education
No education2⋅462⋅01, 3⋅01<0⋅0011⋅881⋅5, 2⋅36<0⋅001
Primary incomplete (grades 1–4)2⋅531⋅99, 3⋅22<0⋅0011⋅981⋅53, 2⋅56<0⋅001
Primary complete (grade 5)2⋅271⋅81, 2⋅85<0⋅0011⋅841⋅45, 2⋅34<0⋅001
Secondary incomplete (grades 6–9)1⋅641⋅32, 2⋅04<0⋅0011⋅431⋅14, 1⋅80⋅002
Secondary complete or above (grade 10 or above)1⋅00Ref.1⋅00Ref.
Paternal education
No education1⋅861⋅57, 2⋅20<0⋅001Not applicable
Primary incomplete (grades 1–4)2⋅051⋅63, 2⋅56<0⋅001
Primary complete (grade 5)1⋅581⋅29, 1⋅94<0⋅001
Secondary incomplete (grades 6–9)1⋅251⋅03, 1⋅520⋅026
Secondary complete or above (grade 10 or above)1⋅00Ref.
Place of residence
Rural1⋅00Ref.1⋅00Ref.
Non-slum urban0⋅670⋅58, 0⋅78<0⋅0010⋅880⋅74, 1⋅050⋅147
Slum1⋅060⋅89, 1⋅260⋅5270⋅910⋅75, 1⋅090⋅296
Religion
Islam1⋅130⋅96, 1⋅340⋅1391⋅090⋅91, 1⋅290⋅345
Other than Islamb1⋅00Ref.1⋅00Ref.
Household size
≤4 members1⋅00Ref.Not applicable
≥5 members1⋅040⋅93, 1⋅160⋅680
Household headship
Male-headed1⋅00Ref.1⋅00Ref.
Female-headed1⋅251⋅10, 1⋅410⋅0011⋅261⋅10, 1⋅43<0⋅001
Household food security status
Food secure1⋅00Ref.1⋅00Ref.
Mild food insecurity1⋅491⋅30, 1⋅71<0⋅0011⋅281⋅12, 1⋅48<0⋅001
Moderate food insecurity2⋅61⋅96, 3⋅45<0⋅0012⋅071⋅55, 2⋅76<0⋅001
Severe food insecurity1⋅351⋅13, 1⋅610⋅0011⋅100⋅92, 1⋅330⋅296
Household wealth
Poorest1⋅551⋅30, 1⋅86<0⋅0011⋅130⋅93, 1⋅380⋅215
Poorer1⋅431⋅20, 1⋅71<0⋅0011⋅080⋅89, 1⋅320⋅429
Middle1⋅581⋅32, 1⋅89<0⋅0011⋅231⋅02, 1⋅490⋅034
Richer1⋅050⋅88, 1⋅250⋅6080⋅920⋅76, 1⋅10⋅354
Richest1⋅00Ref.1⋅00Ref.

aOR, adjusted odds ratio; cOR, crude odds ratio; Ref., reference category.

Adjusted for education, maternal education, place of residence, religion, household headship, household food security status and household wealth.

Buddhism, Christianity and Hinduism.

Table 5.

Multivariable logistic regression analysis on the socio-economic factors influencing inadequate DD among adolescent girls

CharacteristicsUnadjustedAdjusteda
cOR95 % CIP-valueaOR95 % CIP-value
Age group (years)
10–141⋅140⋅96, 1⋅350⋅130Not applicable
15–171⋅130⋅94, 1⋅350⋅184
18–191⋅00Ref.
Education
No education4⋅842⋅47, 9⋅50<0⋅0013⋅281⋅65, 6⋅490⋅001
Primary incomplete (grades 1–4)1⋅751⋅44, 2⋅13<0⋅0011⋅411⋅15, 1⋅730⋅001
Primary complete (grade 5)1⋅391⋅13, 1⋅720⋅0021⋅150⋅92, 1⋅430⋅214
Secondary incomplete (grades 6–9)1⋅381⋅16, 1⋅64<0⋅0011⋅191⋅00, 1⋅430⋅053
Secondary complete or above (grade 10 or above)1⋅00Ref.1⋅00Ref.
Maternal education
No education2⋅331⋅91, 2⋅86<0⋅0011⋅671⋅34, 2⋅08<0⋅001
Primary incomplete (grades 1–4)2⋅151⋅70, 2⋅73<0⋅0011⋅631⋅27, 2⋅1<0⋅001
Primary complete (grade 5)1⋅951⋅56, 2⋅44<0⋅0011⋅531⋅21, 1⋅94<0⋅001
Secondary incomplete (grades 6–9)1⋅641⋅32, 2⋅04<0⋅0011⋅401⋅12, 1⋅750⋅003
Secondary complete or above (grade 10 or above)1⋅00Ref.1⋅00Ref.
Paternal education
No education2⋅211⋅86, 2⋅62<0⋅001Not applicable
Primary incomplete (grades 1–4)2⋅031⋅61, 2⋅55<0⋅001
Primary complete (grade 5)1⋅581⋅28, 1⋅94<0⋅001
Secondary incomplete (grades 6–9)1⋅451⋅18, 1⋅77<0⋅001
Secondary complete or above (grade 10 or above)1⋅00Ref.
Place of residence
Rural1⋅00Ref.1⋅00Ref.
Non-slum urban0⋅670⋅58, 0⋅77<0⋅0010⋅920⋅78, 1⋅10⋅372
Slum1⋅120⋅94, 1⋅340⋅2031⋅040⋅86, 1⋅250⋅697
Religion
Islam1⋅090⋅92, 1⋅300⋅310Not applicable
Other than Islamb1⋅00Ref.
Household size
≤4 members1⋅00Ref.Not applicable
≥5 members1⋅040⋅93, 1⋅170⋅700
Household headship
Male-headed1⋅00Ref.1⋅00Ref.
Female-headed1⋅211⋅06, 1⋅370⋅0041⋅211⋅06, 1⋅380⋅004
Household food security status
Food secure1⋅00Ref.1⋅00Ref.
Mild food insecurity1⋅541⋅34, 1⋅77<0⋅0011⋅311⋅14, 1⋅51<0⋅001
Moderate food insecurity2⋅391⋅79, 3⋅17<0⋅0011⋅931⋅44, 2⋅59<0⋅001
Severe food insecurity1⋅451⋅21, 1⋅73<0⋅0011⋅180⋅98, 1⋅420⋅085
Household wealth
Poorest1⋅911⋅60, 2⋅29<0⋅0011⋅431⋅17, 1⋅750⋅001
Poorer1⋅831⋅53, 2⋅19<0⋅0011⋅411⋅15, 1⋅720⋅001
Middle1⋅921⋅61, 2⋅30<0⋅0011⋅521⋅24, 1⋅85<0⋅001
Richer1⋅441⋅20, 1⋅72<0⋅0011⋅231⋅02, 1⋅480⋅027
Richest1⋅00Ref.1⋅00Ref.

aOR, adjusted odds ratio; cOR, crude odds ratio; Ref., reference category.

Adjusted for education, maternal education, place of residence, household headship, household food security status and household wealth.

Buddhism, Christianity and Hinduism.

Multivariable logistic regression analysis on the socio-economic factors influencing inadequate DD among adolescent boys aOR, adjusted odds ratio; cOR, crude odds ratio; Ref., reference category. Adjusted for education, maternal education, place of residence, religion, household headship, household food security status and household wealth. Buddhism, Christianity and Hinduism. Multivariable logistic regression analysis on the socio-economic factors influencing inadequate DD among adolescent girls aOR, adjusted odds ratio; cOR, crude odds ratio; Ref., reference category. Adjusted for education, maternal education, place of residence, household headship, household food security status and household wealth. Buddhism, Christianity and Hinduism. The chances of having inadequate DD had an inverse association with educational attainment among both boys and girls; however, the association was statistically significant only for those who had incomplete primary education (boys: aOR 1⋅41; 95 % CI 1⋅15, 1⋅71; P = 0⋅001 and girls: aOR 1⋅41; 95 % CI 1⋅15, 1⋅73; P = 0⋅001) and those who received no education (boys: aOR 1⋅78; 95 % CI 1⋅22, 2⋅58; P = 0⋅003 and girls: aOR 3⋅28; 95 % CI 1⋅65, 6⋅49; P = 0⋅001) compared to those who completed at least secondary level education. Moreover, we found that maternal education has a highly significant inverse relationship with inadequate DD among both boys and girls. Meanwhile, boys belong to female-headed households had 26 % higher odds ratio (aOR 1⋅26; 95 % CI 1⋅10, 1⋅43; P < 0⋅001), and adolescent girl belonged to female-headed households had 21 % higher odds ratio (aOR 1⋅21; 95 % CI 1⋅06, 1⋅38; P = 0⋅004) to have inadequate DD in relation to adolescents from male-headed households. The chances of having inadequate DD among adolescents are relatively higher for the food-insecure households compared to the food-secure household. Similarly, the girls of relatively poorer households had higher chances of having inadequate DD compared to the girls from the richest households. However, there was no such pattern among boys. No association was found either between the place of residence and inadequate DD or between religion and inadequate DD.

Discussion

Using nationally representative data from rural, non-slum urban and slum areas, this is the first study in Bangladesh to explore the prevalence of inadequate DD and its determinants among adolescent boys and girls. The findings of the study revealed that half of the adolescents in Bangladesh consumed less diversified diets, and girls were more likely to have inadequate DD than boys in all socio-economic categories. Poor educational attainment, poor maternal education, female household headship, household food insecurity and poor household wealth were identified as factors significantly associated with inadequate DD in both sexes.

Prevalence of inadequate DD

Our study revealed that in Bangladesh, more than half of the adolescent girls (55⋅5 %) consumed inadequately diversified diets, which is consistent with other studies in Bangladesh. One study conducted during 2017–18 in rural settings found that 53⋅0 % of adolescent girls had inadequate DD(, which is close to our findings. However, this estimation is lower than the prevalence of inadequate DD among adolescent girls reported from an analysis using national-level databases of Bangladesh reported by Mridha et al. (60⋅4–65⋅3 % in 2014)( and another recent national-level survey among women aged 10–49 years(. Besides, results from several small-scale studies in Bangladesh also provided similar estimates though those studies were carried out among adolescent population groups in specific settings, for example, urban slum, schools among pregnant adolescent girls(. This variation in inadequate DD prevalence within Bangladesh could be due to different methodological aspects such as food grouping, the number of food groups considered, various recall periods, types of the questionnaire (open recall or list-based method) used for data collection, etc., or contextual aspects like seasonality, geographical settings, etc., or might be due to different categories of study participants for different studies(. In our study, the prevalence of inadequate DD among adolescent boys (50⋅6 %) was lower than the adolescent girls. As per our knowledge, there is only one study( that reported the prevalence of inadequate DD among the adolescent boys. Similar to our findings, the present study identified the lower prevalence of inadequate DD among boys than girls(. However, several studies in Bangladesh( and other countries reported dietary diversity score (DDS)(, consumption of foods from individual food groups or inadequate intake at the nutrient level( among adolescent boys, which are not exactly comparable with our study results. A study in India( reported that among adolescents, DDS among boys was significantly higher (DDS = 4⋅5) compared to girls (DDS = 4⋅1), which in other way indicates higher inadequate DD among girls compared to boys and is similar to our findings. Less favourable dietary practices among adolescent girls compared to boys was also observed in Pakistan(. However, a longitudinal multi-country study reported that DDS among boys was slightly lower than adolescent girls in India, but this disparity was not statistically significant(. This higher prevalence of inadequate DD among girls compared to adolescent boys could be due to unequal allocation of food at the household level that advantaged the boys in the consumption of nutrient-rich foods along with other factors such as socio-cultural norms and malpractices as well as different dietary behaviours among girls than boys(.

Determinants of inadequate DD

Education (adolescent and their parents)

Our findings indicated that poor educational attainment of adolescents was a consistent and strong determinant of inadequate DD among adolescent boys and girls. The risk of having inadequate DD was significantly higher among adolescent boys and girls with no education or among those who did not complete primary education compared to those who had at least secondary level education. In most of the previous studies about the dietary intake of adolescents, the educational accomplishment of them was not examined as a predictor of their DD. However, a few studies in Bangladesh among pregnant adolescent girls( and women of reproductive ages( also found a positive association between education and DD. On the other hand, we did not find any research that analyzed the determinants of inadequate DD among adolescent boys. It is evident that a low level of food and nutrition literacy is associated with low DD among school-going children( but an understanding of how educational attainment affect diet quality require further exploration. Since parents, particularly mothers, are the major decision-maker of adolescents’ food intake, parental education, particularly maternal education is considered worthy of examining as an explanatory variable for adolescents’ dietary intake(. Among boys and girls, our data suggested that lower maternal education, which in fact represents both maternal and paternal education (paternal education was highly associated with maternal education), was a significant predictor of inadequate DD. The existing literature indicates that for adolescents’ (irrespective of sex) diet quality, maternal education level is a stronger predictor than the paternal education(. In urban Bangladesh, one study among school girls reported that poor maternal education was associated with girls’ intake of protein, fat and riboflavin(. Other studies among adolescent girls in Bangladesh and neighbouring countries frequently reported that low maternal education was associated with poor and less diversified diets and lower consumption of nutrient-rich foods(. Educated parents are more likely to have better nutritional knowledge and awareness and be economically better-off, which might be reflected in their children's diet quality and hence still demand further study.

Household headship

In our analyses, living in a female-headed household emerged as a significant factor that limits the diversity of diet among both boys and girls. In line with our findings, several studies reported that being part of female-headed households is associated with a poor diet in terms of quality and diversity at the individual and household levels(. On the contrary, there are studies from South Africa, Tanzania, Dominican Republic that reported female-headed households had a lower risk of inadequate DD at the household level compared to male-headed counterparts(, which could be due to women’ more involvement in food preparation, decision-making power on the household budget for high-quality diet, etc.(. Findings from our study support the conventional idea that female-headed households are more vulnerable to poor-quality diets at the individual level and also at the household level. Being a household head, a woman is responsible for earning income in the unfavourable labour market, maintaining the whole household, including childcare. As a result, they face a high dependency ratio, which makes the household and the individuals vulnerable to poor diet quality(. Besides the work burden, female-headed households face unique constraints concerning diet quality through low education, food insecurity and poverty(. Though we did not report the education of household heads, our study suggested that inadequate DD was also associated with different levels of food insecurity and low household wealth (see later).

Household food security status

We observed that compared to adolescents from food-secure households, adolescents from mild and moderate food-insecure households had a significantly higher risk of having inadequate DD. Our result supports previous studies conducted among adolescents girls( and among women of reproductive age in Bangladesh(. Moreover, a study found that food insecurity status is linked with lower consumption of animal source foods, vitamin C-rich fruits and vegetables among pregnant adolescent girls(. It is already established that household DD reflects household food security, and a considerable association was found between individual level DD and household food security(. Besides, evidence suggests that the three pillars of food security, that is, availability, accessibility and utilisation( are associated with DD.

Household wealth status

Our data suggested that adolescent girls and boys from poor households were more likely to have inadequate DD compared to the girls from the wealthiest households. Similar findings have been observed in many other studies in Bangladesh. Different studies reported that poor asset quintile(, low socio-economic status(, low household expenditure(, low income(, low wealth score( increased the risk of having inadequate DD among adolescents and women compared to their counterparts. A close look at the ten food groups of DD score, where fruits and vegetables were included in four groups, and animal source foods covered another three groups, could be helpful to explain this association. The consumption of fruits and vegetables along with animal source foods increases with income in Bangladesh like many other developing countries(; hence poor households cannot afford the animal source foods in the first place. Besides, poor household members prioritise fulfilling the basic energy requirement from staples foods to get rid of hunger within their budget allocation for foods(. Moreover, the lack of knowledge about the health benefits of vegetables and fruits and the personal preference of adolescents from poor households limits the consumption too(. Thus, lower economic conditions act as a risk factor for inadequately diversified diets among adolescents.

Strengths and limitations

The present study has several strengths over other studies of this kind. Firstly, the present study used the latest national-level survey dataset, covering rural, non-slum urban and slum areas and collected at the community level. Thus, the results of the present study could be generalised to the entire adolescent population. Secondly, for the first time in Bangladesh, adolescent boys were included for a comprehensive assessment of their dietary practices, which is a timely response to the urgency of gender-segregated data on the diets of adolescents. Lastly, previous studies on DD mostly used DDS as a measure of diversified diets, but there were no clear cut-off points to define as ‘adequate’ of ‘inadequate’ DD, which was crucial for advocacy and to take public health actions(; our study will serve this purpose perfectly. Based on the findings of the present study, national policies and programmes could be designed to address inadequate DD among adolescent boys and girls who need it most, considering the identified determinants and their socio-economic stratification. However, our study has some limitations too. ‘We had to drop several rural clusters due to some administrative and financial hurdles which might have affected the representativeness of the study’. As the data source of the present study is a cross-sectional survey, it must be acknowledged that associations were estimation and causality cannot be determined from these findings. Besides, there are many other sets of explanatory variables omitted from the model that may have predictive power on inadequate DD among adolescents such as behavioural, cultural and environmental, here we just considered the socio-economic factors. More research must be done to understand better how these factors employ their impact on diet among adolescents, particularly since the variance in the outcome variable was largely unexplained. Besides, all dietary data were self-reported, and it is evident that dietary recall in adolescents affected by lack of motivation and willingness, and thus, assessment of dietary intake of adolescents can be subject to underreporting and misreporting(. It may have exaggerated responses non-randomly across the study participants. Moreover, we used a list-based recall method for dietary data collection in the last 24 h only, which tends to provoke biased towards socially desirable responses, such as untrue positive responses for high-status foods (e.g. meat) compared to the open recall method. Besides, a single 24 h recall has its own limitation regarding inability to capture day-to day variation.

Conclusion

We found that more than half of the adolescent boys and girls consume inadequately diverse diets in Bangladesh, and the prevalence of inadequate DD was higher among girls than boys. Our study also identified that a number of socio-economic risk factors such as lower educational level of adolescents and their parents, living in female-headed, food insecure and poor households were associated with inadequate DD among adolescent boys and girls in Bangladesh. These findings have manifold operational and policy implications for improving adolescents’ DD in resource-poor countries like Bangladesh. Gender disparity and socio-economic inequity of adolescents’ DD emerged from the present study should be addressed through policy interventions. At the household level, broader poverty alleviation initiative, particularly for female-headed households, is necessary to address inadequate DD among adolescents through improving households’ economic and food security status, which will, in turn, enable households’ accessibility to nutrient-rich diversified foods. Hence, investing in adolescents would be the best utilisation of resources not only for the betterment of adolescents themselves but for the future generations.
  40 in total

Review 1.  Preparation and use of food-based dietary guidelines. Report of a joint FAO/WHO consultation. FAO/WHO.

Authors: 
Journal:  World Health Organ Tech Rep Ser       Date:  1998

2.  Factors associated with nutritional status and dietary practices of Bangladeshi adolescents in early pregnancy.

Authors:  Malay K Mridha; Susana L Matias; Charles D Arnold; Kathryn G Dewey
Journal:  Ann N Y Acad Sci       Date:  2018-02-18       Impact factor: 5.691

3.  Simple food group diversity indicators predict micronutrient adequacy of women's diets in 5 diverse, resource-poor settings.

Authors:  Mary Arimond; Doris Wiesmann; Elodie Becquey; Alicia Carriquiry; Melissa C Daniels; Megan Deitchler; Nadia Fanou-Fogny; Maria L Joseph; Gina Kennedy; Yves Martin-Prevel; Liv Elin Torheim
Journal:  J Nutr       Date:  2010-09-29       Impact factor: 4.798

4.  Dietary diversity is associated with child nutritional status: evidence from 11 demographic and health surveys.

Authors:  Mary Arimond; Marie T Ruel
Journal:  J Nutr       Date:  2004-10       Impact factor: 4.798

5.  Pregnant Women Diet Quality and Its Sociodemographic Determinants in Southwestern Bangladesh.

Authors:  Abu Ahmed Shamim; Saidur Rahman Mashreky; Tarana Ferdous; Kathrin Tegenfeldt; Sumitro Roy; A K M Fazlur Rahman; Iftekhar Rashid; Raisul Haque; Zakia Rahman; Kabir Hossen; Saydur Rahman Siddiquee; Mosiqure Rahman; Tina G Sanghvi; Nazma Shaheen
Journal:  Food Nutr Bull       Date:  2016-03       Impact factor: 2.069

Review 6.  Our future: a Lancet commission on adolescent health and wellbeing.

Authors:  George C Patton; Susan M Sawyer; John S Santelli; David A Ross; Rima Afifi; Nicholas B Allen; Monika Arora; Peter Azzopardi; Wendy Baldwin; Christopher Bonell; Ritsuko Kakuma; Elissa Kennedy; Jaqueline Mahon; Terry McGovern; Ali H Mokdad; Vikram Patel; Suzanne Petroni; Nicola Reavley; Kikelomo Taiwo; Jane Waldfogel; Dakshitha Wickremarathne; Carmen Barroso; Zulfiqar Bhutta; Adesegun O Fatusi; Amitabh Mattoo; Judith Diers; Jing Fang; Jane Ferguson; Frederick Ssewamala; Russell M Viner
Journal:  Lancet       Date:  2016-05-09       Impact factor: 79.321

7.  How diverse is the diet of adult South Africans?

Authors:  Demetre Labadarios; Nelia Patricia Steyn; Johanna Nel
Journal:  Nutr J       Date:  2011-04-17       Impact factor: 3.271

8.  Low Dietary Diversity and Intake of Animal Source Foods among School Aged Children in Libo Kemkem and Fogera Districts, Ethiopia.

Authors:  Zaida Herrador; Jesus Perez-Formigo; Luis Sordo; Endalamaw Gadisa; Javier Moreno; Agustin Benito; Abraham Aseffa; Estefania Custodio
Journal:  PLoS One       Date:  2015-07-23       Impact factor: 3.240

9.  Socio-Demographic and Diet-Related Factors Associated with Insufficient Fruit and Vegetable Consumption among Adolescent Girls in Rural Communities of Southern Nepal.

Authors:  Jitendra Kumar Singh; Dilaram Acharya; Salila Gautam; Mandira Adhikari; Ji-Hyuk Park; Seok-Ju Yoo; Kwan Lee
Journal:  Int J Environ Res Public Health       Date:  2019-06-17       Impact factor: 3.390

10.  Global, regional, and national prevalence of overweight and obesity in children and adults during 1980-2013: a systematic analysis for the Global Burden of Disease Study 2013.

Authors:  Marie Ng; Tom Fleming; Margaret Robinson; Blake Thomson; Nicholas Graetz; Christopher Margono; Erin C Mullany; Stan Biryukov; Cristiana Abbafati; Semaw Ferede Abera; Jerry P Abraham; Niveen M E Abu-Rmeileh; Tom Achoki; Fadia S AlBuhairan; Zewdie A Alemu; Rafael Alfonso; Mohammed K Ali; Raghib Ali; Nelson Alvis Guzman; Walid Ammar; Palwasha Anwari; Amitava Banerjee; Simon Barquera; Sanjay Basu; Derrick A Bennett; Zulfiqar Bhutta; Jed Blore; Norberto Cabral; Ismael Campos Nonato; Jung-Chen Chang; Rajiv Chowdhury; Karen J Courville; Michael H Criqui; David K Cundiff; Kaustubh C Dabhadkar; Lalit Dandona; Adrian Davis; Anand Dayama; Samath D Dharmaratne; Eric L Ding; Adnan M Durrani; Alireza Esteghamati; Farshad Farzadfar; Derek F J Fay; Valery L Feigin; Abraham Flaxman; Mohammad H Forouzanfar; Atsushi Goto; Mark A Green; Rajeev Gupta; Nima Hafezi-Nejad; Graeme J Hankey; Heather C Harewood; Rasmus Havmoeller; Simon Hay; Lucia Hernandez; Abdullatif Husseini; Bulat T Idrisov; Nayu Ikeda; Farhad Islami; Eiman Jahangir; Simerjot K Jassal; Sun Ha Jee; Mona Jeffreys; Jost B Jonas; Edmond K Kabagambe; Shams Eldin Ali Hassan Khalifa; Andre Pascal Kengne; Yousef Saleh Khader; Young-Ho Khang; Daniel Kim; Ruth W Kimokoti; Jonas M Kinge; Yoshihiro Kokubo; Soewarta Kosen; Gene Kwan; Taavi Lai; Mall Leinsalu; Yichong Li; Xiaofeng Liang; Shiwei Liu; Giancarlo Logroscino; Paulo A Lotufo; Yuan Lu; Jixiang Ma; Nana Kwaku Mainoo; George A Mensah; Tony R Merriman; Ali H Mokdad; Joanna Moschandreas; Mohsen Naghavi; Aliya Naheed; Devina Nand; K M Venkat Narayan; Erica Leigh Nelson; Marian L Neuhouser; Muhammad Imran Nisar; Takayoshi Ohkubo; Samuel O Oti; Andrea Pedroza; Dorairaj Prabhakaran; Nobhojit Roy; Uchechukwu Sampson; Hyeyoung Seo; Sadaf G Sepanlou; Kenji Shibuya; Rahman Shiri; Ivy Shiue; Gitanjali M Singh; Jasvinder A Singh; Vegard Skirbekk; Nicolas J C Stapelberg; Lela Sturua; Bryan L Sykes; Martin Tobias; Bach X Tran; Leonardo Trasande; Hideaki Toyoshima; Steven van de Vijver; Tommi J Vasankari; J Lennert Veerman; Gustavo Velasquez-Melendez; Vasiliy Victorovich Vlassov; Stein Emil Vollset; Theo Vos; Claire Wang; XiaoRong Wang; Elisabete Weiderpass; Andrea Werdecker; Jonathan L Wright; Y Claire Yang; Hiroshi Yatsuya; Jihyun Yoon; Seok-Jun Yoon; Yong Zhao; Maigeng Zhou; Shankuan Zhu; Alan D Lopez; Christopher J L Murray; Emmanuela Gakidou
Journal:  Lancet       Date:  2014-05-29       Impact factor: 79.321

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