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International Journal of Preventive Medicine logoLink to International Journal of Preventive Medicine
. 2020 Sep 22;11:158. doi: 10.4103/ijpvm.IJPVM_463_19

The Relationship between Food Insecurity and Risk of Overweight or Obesity in under 18 Years Individuals: A Systematic Review and Meta-Analysis

Ali Pourmotabbed 1, Seyedeh Parisa Moosavian 1, Amir Hadi 2, Hamed Mohammadi 1, Alireza Dadfarma 3, Shahabeddin Rezaei 4, Atefeh Babaei 1, Sajjad Moradi 2,5,, Khadijah Mirzaei 6,
PMCID: PMC7716614  PMID: 33312467

Abstract

Objective:

Food insecurit (FI) has been considered as reason for childhood and adolescent overweight/obesity (OW/OB). Hence, this study was undertaken to assess these relationships.

Design:

Related articles were found by searching the Web of Science, Scopus, PubMed and Embase databases until October 2019. Odds ratio (OR) was analized by a random-effects model. Standard methods were used for assessment of heterogeneity and publication bias. Data were available from 32 studies. The risk ratios of 139,762 participants were pooled from these articles for the meta-analysis.

Results:

This study domenstrated that children and adolescents in food-insecure condition are not at risk of OW/OB (OR = 1.02 95% CI: 0.99, 1.05). However, subgroup analysis indicated that FI related with inhanced risk of OW/OB in adolescents living in developed countries (OR = 1.14; 95% CI: 1.02, 1.27). Other subgroup analysis indicated that severe FI increased the risk of OW/OB among adolescents (OR = 1.24 95% CI: 1.03-1.49). In addition, we found that lower economic development significantly decreased risk of OW/OB among under 6 year children (OR = 0.88; 95% CI: 0.84, 0.93).

Conclusions:

Our results showed that higher FI degrees were related with more risks of OW/OB among adolescents (12–18 years). Moreover, the country economic levels had effect on the association between FI and risk of OW/OB.

Keywords: Adolescents, children, food insecurity, obesity risk, overweight risk

Introduction

Obesity and overweight have placed a large load on the children population over the last three decade with steady increases noted in all around the world,[1] especially in many underdeveloped countries.[2,3] Children with obesity and overweight have an enhanced risk of becoming more weight gain in adulthood,[4] and the conditions are associated with risk factors for a several of prevalent disease namely heart disease, type 2 diabetes,[1] hypertension,[5] dyslipidemia,[6] asthma,[7] metabolic syndrome, liver disease,[8] cancer,[9] and premature death.[8] The variables considered as potential risk factors for childhood and adolescent obesity are: genetic predisposition, maternal smoking during pregnancy, sedentary behavior, socioeconomic status, sleep habits, ethnic origin, microbiota, iatrogenic, endocrine diseases, low resting metabolic rate, obesogenic food advertising, diet and related problems.[10,11,12,13]

Food security is described as the assured access to acquire nutritionally enough and safe food that meets cultural requirements and attained in a socially possible procedure.[14] In other hands, food insecurity (FI) happens as a consequence of restricted resources, and affects many households in all around the world, thereby causing malnutrition.[15] Recent studies have shown a link between FI, growth problems and diseases among under 18 years individuals, which will lead to increased risks of health complications in adulthood. Food insecure individuals have increased risks of: weight abnormality,[16] anemia,[17] growth problems,[18] mental disorders[19] and overweight/obesity (OW/OB).[20,21]

One factor which has been more consideration in obesity studies is the effect of FI in association to weight status.[22] Researches by Franklin et al.[23] and Eisenmann et al.[24] assessed the associations between FI and OW/OB risk. Franklin et al.[23] suggested that FI may increase the risk of obesity in females. However, Eisenmann et al.[24] revealed that, even though the percent of overweight was high in children living in FI condition, there was no association between FI and weight status in children. Also, recent studies on the association between FI and risk of obesity in children has led to different outcomes; some previous researches have shown an relationship between FI and the risk of OW/OB in under 18 years individuals[20,21,22,25,26,27,28,29,30,31]; others, have suggested that no relationship exists.[31,32,33,34,35,36,37,38,39,40,41,42,43] Moreover, recent studies is evaluating more factors such as abdominal obesity, which may more accurately explain the association between FI and childhood OW/OB risk.[20,43]

Although several studies exist which assess the relationship between FI and risk of OW/OB in under 18 years individuals, it is not clearly understood whether FI is related with higher OW/OB risks among under 18 years individuals. Thus, current study was conducted to evaluation the relationship between FI and OW/OB risks in under 18 years individuals.

Methods

Literature search and selection

This study was conducted based on the guidelines of the Meta-Analysis of Observational Studies in Epidemiology.[44] A systematic literature review was undertaken using the PubMed, Web of Science, Scopus and Embase databases, until October 2019. Search strategies used medical subject heading (Mesh) and keywords without date or language limitations. The below keywords were used in the systematic search for the association between FI and risk of OW/OB in under 18 year subjects: (((((weight OR Obesity OR “Body mass index” OR BMI OR Adiposity OR Overweight OR obese*)) AND (((((“Food Insecurity” OR “Food Insecurities” OR “Food security” OR “Food securities” OR “Food Supply”) AND (((((“Paediatric Obesity” OR child* OR Paediatric OR adolescent* OR infant*))))). The review articles references were also assessed manually.

Eligibility criteria

Articles were inhered in the statistical analysis if they met the below features: (1) Observational articles that showed on the relationship between FI and the risks of OW/OB in under 18-year-old individuals; (2) Articles that reported odds ratios (OR) with corresponding 95% confidence intervals (CI) of OW/OB risk for children and adolescents. Articles were excluded if: (a) the data could not be used; (b) they were editorials, conference reports, reviews, book chapter, case reports or letters; (c) they did not report the risk of OW/OB; (d) they included adult individuals.

Study selection

The titles and abstracts of all studies in the primary search were assessed separately by 2 investigator. Studies not meeting the eligibility criteria were excluded using a screening form, with a step by step procedure according to research setting, participants, or exposure and result. The reference of included studies recognized among this procedure were also assessed to obtain more articles. Full-text studies were regained, if the citation was recognized qualified, and subjected to a next assessment for relationship by the same investigator. Any discrepancy was negotiated and resolved by consensus.

Data collection

For the included articles, two investigators (SM and AD) extracted information independently via a standard information extraction tool. They discussed any disagreements in data extraction process and sought the evaluation of a third investigator (HM) for resolution. Extracted data included articles details, population characteristics, exposure, main findings, and quality score [Table 1].

Table 1.

Description of the studies included in present meta-analysis investigating the association between food security status and risk of childhood and adolescents’ obesity (2001-2019)

First Author (year publication) Database Country Study design (fallow up duration) Subjects: Criteria for overweight and obesity status (year) Race/ethnicity level of food insecurity Measurement Measure of food insecurity OR (95%CI) Main findings Adjusted variables Quality Score
Alaimo K (2001) NHANES-III USA Cross-sectional Age: 2-16 years n=9196 CDC growth charts (2000) White, Black, Hispanic, Asian and other race Household Food insufficiency family questionnaire Overweight risk Child’s height and birth weight, mother’s height and weight, father’s height and weight, age squared, poverty income ratio, household size, family head education status, family head employment status, family head martial status, metropolitan location, health insurance coverage, regular source of health care, smoke exposure during pregnancy, and birth complications +10/10
Rose D (2006) ECLS-K USA Longitudinal (3 year) Ages: 6.16±0.06 years, n=16889 (%48.6 girls and %51.4 boys) CDC growth charts (2000) White, Black, Latino and Asian American Household Child USDA Overweight risk Household food insecurity, is not associated with overweight risk Age, gender, birth weight, mother education, household economic status, region, urbanization, physical activity of children and family meal patterns +10/10
Dubois L (2006) LSCDQ Canada Longitudinal (5 year) Age: 3.5-4.5 years n=1549 (%48.9 Girls and %51.1 boys) CDC growth charts (2000) and Cole criteria (2000) White Household Radimer/Cornell questionnaire Overweight risk Children living in households experiencing food insufficiency were more likely at some time to be overweight Gender, birth weight, mother’s age, mother’s immigrant status, mother’s education, mother’s BMI, mother’s psychological distress, maternal smoking during pregnancy, family type, family income sufficiency level, number of working parents, breastfeeding +10/10
Casey PH (2006) NHANES USA Cross-sectional Ages: 3-17 years n=6995 (%49.2 Girls and %50.8 boys) CDC growth charts (2000) White, Black, Hispanic, Mexican American and other Child HFSSM Overweight risk Household and child food insecurity are associated with being overweight Ethnicity, gender, age, and family poverty index level +9/10
Whitaker RC (2006) Fragile Families and Child Well-being Study USA Cross-sectional Ages: 3.21±0.27 years n=2459 CDC growth charts (2000) White, Black, Hispanic and other race Household HFSSM Obesity risk Food insecurity did not increase the odds of obesity among US urban children Race/ethnicity, maternal education, income-to-poverty ratio, and for children’s food security, fully food secure +10/10
Isanaka S (2007) Children’s health and nutritional status in primary public schools of Bogota Colombia Cross-sectional Ages: 5-12 years n=2526 Cole growth reference (2000) Hispanic Household USDA Overweight/obesity risk Food insecurity was not related to child stunting or child overweight Mother’s age, education level, parity, marital status, father’s age and education level, household size, per capita daily, money spent on food per capita, type of dwelling, home ownership, household socioeconomic stratum, and the number of home assets owned +10/10
Martin KS (2007) Hartford Connecticut study USA Cross-sectional Ages: 2-12 years n=212 (%50.9 Girls and % 49.1 boys) CDC growth charts (2006) White Hispanic Black West Indian Household USDA Overweight risk Food insecurity did not increase the odds of childhood overweight. Age, sex, race/ethnicity, Parent over high school degree and level of poverty +9/10
Gundersen C (2008) The Three-City Study USA Longitudinal (6 year) Ages: 10-15 years n=1031 (%51.7 girls and %48.3 boys) CDC growth charts (2007) White, Black, Hispanic and other race Household CFSM Overweight risk Bivariate analyses indicated that there were no significant differences in the prevalence of at risk of overweight and overweight Age, race/ethnicity, household income: needs ratio, caregiver education and immigrant status, family eats breakfast together, family eats dinner together, household owns its residence, caregiver married, age of the caregiver, and household size +10/10
Gundersen C (2009) NHANES USA Cross-sectional Ages: 8 - 17 years n=2516 (%49.2 girls and %50.8 boys) CDC growth charts (2000) White, Black, Hispanic and other race Households CFSM Obesity risk Food insecure children were no more likely to be obese than their food-secure counterparts across all measures of obesity. Age (y), race/ethnicity, gender, and annual household income divided by the poverty line +9/10
Metallinos-Katsaras E (2009) Special Supplemental Nutrition Program for Women, Infants, and Children USA Cross-sectional Ages: under 5 years n=8493 (%48.6 girls and %51.4 boys) CDC growth charts (2000) White, Black and Hispanic Households HFSSM Overweight/obesity risk Among girls younger than 2 years of age, household food insecurity was associated with reduced odds of overweight Children’s age, sex, parental/caretaker report of child race/ethnicity, and maternal education +9/10
Rosas LG (2011) CHAMACOS USA And Mexico Longitudinal Ages: 5-16 years n=603 (%47 Girls and%53 boys) CDC growth charts (2000) Mexican- American and Mexican Household USDA Overweight/obesity risk In Mexico, male gender, high socioeconomic status and very low food insecurity were associated with being overweight or obese. Age, gender, mother’s weight status, mother education, mother’s work status, household economic status, daily TV time, time spent playing outside and soda consumption +10/10
DuboisL (2011) QLSCD Jamaica and Canada Longitudinal Ages: 10-11 years n=2864 (%52.5 girls and %47.5 boys) Cole growth reference (2000) Black White Households USDA Overweight/obesity risk Food insecurity appears to be positively associated with childhood overweight/obesity in children from the province of Québec, Canada. Sex, level of physical activity, family type, family SES (by tertile: low, medium, high), and children’s daily consumption of fruit, vegetables, and pastries +10/10
Metallinos-Katsaras E (2012) WIC program USA Longitudinal Ages: 2 - 5 years n=28353 (%49 girls and %51 boys) CDC growth charts (2000) White, Black, Hispanic and Asian Household HFSSM Overweight/obesity risk Persistent household food insecurity without hunger was associated with 22% greater odds of child obesity Child race/ethnicity, sex, child and household size, maternal age, education, and prepregnancy weight +9/10
Kac G (2012) DHS Brazil Cross-sectional Ages: 15-19 years n=1529 (%100 girls) WHO growth reference (2006) Hispanic Household EBIA Overweight/obesity risk Severe but not moderate or mild food insecurity, is independently associated with excessive weight among female adolescents Self-reported skin color, years of schooling, area of residence, geographical region, per capita family income, smoking habit, marital status, number of people living in the household and age in years (continuous) +10/10
Kaur J (2015) NHANES USA Cross-sectional Ages: 2 - 11 years n=9701 (%49.6 girls and %50.5 boys) CDC growth charts (2014) White, Black and Mexican- America Child Individual HFSSM Obesity risk An association between obesity and personal food insecurity was seen in children aged 6 to 11 years Age, sex, race/ethnicity, and family poverty-to-income ratio and survey period +10/10
Trappmann JL (2015) CHILE USA Cross-sectional Ages: 3-5 years n=374 (%48.6 girlsand %51.4 boys) CDC growth charts (2013) Hispanic and American Indian Household CHILE interview forms Overweight/obesity risk No significant relationships emerged between food insecurity and child overweight/obesity Gender, plate cleaning encouragement, limiting of certain frequency, and receipt of federal assistance benefits (WIC, SNAP, WIC and/or SNAP, TANF, and Medicaid) +10/10
Holben DH (2015) NHANES USA Cross-sectional Ages: 12-18 years n=7435 (%48.5 girls and%51.5 boys) CDC growth charts (2000) White, Black, Hispanic and Mexican- American Household HFSSM Overweight/obesity risk Household food insecurity was associated with an increased likelihood of being overweight and having central obesity. Age, race/ethnicity, and sex +9/10
Lohman BJ (2016) IYFP USA Longitudinal Ages: 13-16 years n=451 (%100 girls) CDC growth charts (2000) White Household CFSM Overweight/obesity risk Those females who experienced only food insecurity in adolescence were not at risk of Overweight/Obesity Gender, respondent education level, parent education level, family of origin per capita income, adolescent and parent BMI +10/10
Hernandez DC (2016) “La Salud de Mamá y Niños” study USA Cross-sectional Ages: 3-6 years n=96 (%51 girls and %49 boys) CDC growth charts (2000) Hispanic Household USDA Overweight/obesity risk Maternal cumulative exposure to food insecurity does not impact children’s body composition Age, marital, education, years residing in the US. maternal BMI and weight status +10/10
Papas MA (2016) LCH USA Cross-sectional Ages: 2.72±0.45 years n=74 (%56.7 girls and %43.3 boys) CDC growth charts (2015) Hispanic Household HFSSM Overweight/obesity risk Food insecurity increased the odds of childhood obesity and overweight weight Marital status, monthly household income, and number of children in household +9/10
Speirs KE (2016) STRONG Kids USA Cross-sectional Ages: 2-5 years n=438 (%51.1 girls and %48.9 boys) CDC growth charts (2013) White and African American Household Child HFSSM Overweight/obesity risk There were no statistically significant associations between either household or child food insecurity and BMI for the full sample. Ethnicity gender, age, maternal age, maternal BMI and family income level +9/10
Gubert MB (2016) 2006 Brazilian Demographic and Health Survey Brazil Cross-sectional Ages: under 5 year n=4064 WHO growth reference (2006) Hispanic Household EBIA Overweight risk There was no association between Brazilian household food insecurity overweight. Type of water for consumption, presence of adequate sanitation, maternal education level, maternal age, household location and geographic region +10/10
Jones AD (2016) National Health and Nutrition Survey of Mexico Mexico Cross-sectional Ages: 15-19 years n=4039 (%100 girls) WHO growth reference (2007) Hispanic Household ELCSA Obesity risk Household food insecurity was not associated with the co-occurrence of overweight among female adolescents. Age, parity, household size, the highest attained education level of the individual, household wealth status, urban city, and region +10/10
Jafari F (2017) Eementary schools, from three geographical areas (four educational destricts) of Isfahan, Iran Iran Cross-sectional Ages: 7-12 years n=587 (439 girls and 148 boys) WHO growth reference, (2007) Middle East Household, Individual Child Radimer/Cornell Obesity risk The slight levels of food insecurity might increase the likelihood of abdominal obesity Age, gender, birth weight, birth order, multiple birth, exclusivity of breast feeding, complementary feeding, length of gestation, length of breastfeeding, maternal age at birth, mother education, father education, mother obesity, father obesity, household economic status, and physical activity of children +10/10
Bhawra J (2017) APS Canada Cross-sectional Ages: 6-17 years n=6900 (%48.9 girls and%51.1 boys) Cole growth reference (2000) White Households APS Obesity risk Children and youth who are in households with very low food security are indeed at higher risk for overweight and obesity Demographic, household, school, geographic and cultural variables +9/10
Shamah-Levy T (2017) ENSANUT Mexico Cross-sectional Ages: under 5 years n=5087 (%49.8 girls and %50.2 boys) WHO growth standards (2016) Hispanic Household ELCSA Overweight/obesity risk There was an inverse relationship between household food security with overweight and obesity risk in schoolchildren Sex, urbanicity, region of residence, maternal education and benefiting from a food assistance +9/10
Swindle (2018) FMI USA Cross-sectional Ages: 10-15 years n=808 (%52 girls and %48 boys) CDC growth charts (2016) White, Black, Hispanic and other race Household HFSSM Overweight risk Children which parent had education beyond high school indicated a reversal with food insecurity odds of overweight less than food security odds. Differences in food security group size +8/10
Yeganeh (2018) Mothers from 10 Health Service Centers in the city of Bushehr, Iran. Iran Cross-sectional Ages: under 5 years n=400 (%53.8 girls and %46.3 boys) WHO growth standards (2016) Middle East Household Child Overweight/obesity risk There was no relationship between household food security with overweight/obesity risk Non +8/10
Wu (2019) TDCYP Taiwan Cross-sectional Ages: 10-15 years n=1326 (%52 girls and %48 boys) Chen & Chang, 2010 Asian Household USDA Overweight/obesity risk There was a direct relationship between household food security with overweight/obesity risk Family structure, household income, and pocket money status +9/10
Au (2019) HCS USA Cross-sectional Age: 4-15 Years n=5138 (50.9% girls and 49.1% boys) CDC growth charts (2000) White, Latino, Black and other race Household USDA Overweight/obesity risk There was a direct relationship between household food security with overweight/obesity risk Maximum father education, and maximum maternal employment. +9/10
Lee (2019) NHANES USA Cross-sectional Age: 12-19 Years n=2662 (46% girls and 54% boys) CDC growth charts (2000) White, Black, Hispanic Household USDA Overweight/obesity risk There was no relationship between household food security with overweight/obesity risk Age, sex, race/ethnicity, and household income-to-poverty ratio. +9/10
Gipson-Jones (2019) large surveillance sample of low-income parents and children attending community-based primary care clinics in Memphis, Tennessee USA Cross-sectional Age: 2-5 Years n=264 (51.9% girls and 48.1% boys) CDC growth charts (2000) Black, and other race Household USDA Overweight/obesity risk There was no relationship between household food security with overweight/obesity risk Non +8/10

APS: Aboriginal Peoples Survey, CFSM: Core Food Security Module, CHAMACOS: Center for the Health Assessment of Mothers and Children of Salinas, CHILE: Child Health Initiative for Lifelong Eating and Exercise, FMI: Family Map Inventory, DHS: Demographic and Health Survey, EBIA: Brazilian Food Insecurity Measurement Scale, ECLS-K: Early Childhood Longitudinal Study-Kindergarten Cohort. ELCSA: Latin American and Caribbean Food Security Scale, ENSANUT: Mexican National Health and Nutrition Survey, HCS: Healthy Communities Study, HFI: Household Food Insecurity, HFSSM: Household Food Security Survey Module, IYFP: Iowa Youth and Families Project, LCH: La Comunidad Hispana, LSCDQ: Longitudinal Study of Child Development in Québec, NHANES: National Health and Nutrition Examination Survey, OW/OB: Overweight/Obesity, TDCYP: Taiwan Database of Children and Youth in Poverty

Quality assessment

Two investigators (SM and HM) evaluated the quality of included articles by the Newcastle-Ottawa scale.[45]

Statistical analysis

To evaluate the relationship of FI and the risk of childhood and adolescent OW/OB, the risk estimates for OW/OB were pooled. Because for accurately evaluate the relationship among FI and the OW/OB risk in under 18-year-old individuals, the study people were categorized according to age, FI assessment and, economic development levels[46] (developing or developed). In addition, studies with age-specific subgroup populations (under 6, 6–12, and 12–18 years) were grouped based on gender (girls, boys, and mixed), degree of FI (mild, moderate, and sever FI),[47] race/ethnicity, economic development level (developing or developed) and FI assessment method (child or household).

Pooled OR [and 95% confidence interval (CI)] was assessed using a weighted random-effect model (the DerSimonian-Laird approach). Heterogeneity in the included articles was examined via Cochran Q and I2 statistics (I2= (Q-df)/Q × 100%; I2 <25%, no heterogeneity; I2 = 25-50%, moderate heterogeneity; I2 = 50-75%, large heterogeneity, I2 >75%, extreme heterogeneity). The heterogeneity was considered significant if either the Q statistic had P < 0.1 or I2 >50%. Visual inspection of asymmetry in funnel plots, Begg's test and Egger's test were carry out to assess publication bias (P < 0.05 was considered representative of statistical significance). All statistical tests were conducted with STATA (version 14.0) and SPSS (version 23.0) software.

Results

Features of the studies

The systematic literature search obtained a total of 3413 articles, after the remove of same results, from the mentioned search engines. After initial screening, all of undesired articles were omitted because they did not meet eligibility criteria, leaving 55 studies for full-text evaluation [Figure 1]. A total of 32 articles met the inclusion criteria to be included in the meta-analysis.[20,21,22,25,26,27,28,29,30,31,32,34,35,36,37,38,39,40,41,42,43,48,49,50,51,52,53,54,55,56,57,58] In these 32 articles, 26 used a cross-sectional setting,[20,21,22,27,29,30,31,32,33,35,36,38,39,40,41,42,43,48,50,51,52,53,54,55,56,57,58] whereas the other 6 were longitudinal studies.[25,26,28,34,37,49] The OR of 139.762 participants was analyzed among these articles for the present study. These articles were published during 2001 and 2019, and performed in the Canada,[22,25,27] United States,[20,21,26,28,29,30,32,34,36,37,38,39,40,42,49,50,52,55,56,57,58] Jamaica[27] Brazil,[41,48] Mexico,[26,31,51] Colombia,[35] Iran[43,54] and Taiwan.[53] Table 1 showed the feature of the articles included. The studies included assess weight status by CDC growth charts,[20,21,25,26,28,29,30,32,34,36,37,38,39,40,42,49,50,52,55,56,57,58] WHO growth standards,[31,41,43,48,51,54,59] Cole growth reference[22,27,35] or local criteria.[53] The articles included for evaluation of FI were USDA,[26,27,34,35,36,40,53,56,57,58] CFSM,[37,38,49] HHFSM,[20,21,28,29,30,42,50,52,55] HFIAS, Radimer/Cornell,[25,43,54] ELCSA,[31,51] EBIA[41,48] and valid local survey forms.[22,32,39] The quality evaluation of each included articles indicated that all articles were of appropriate quality [Supplementarys Table 1 and 2].

Figure 1.

Figure 1

PRISMA flowchart describing the study's systematic literature search and study selection

Supplementary Table 1.

Quality assessment of included cross-sectional studies using the Newcastle-Ottawa scale

First Author (year) Selection Comparability Exposure Quality Score
Alaimo K (2001) ***** ** *** +10/10
Casey PH (2006) **** ** *** +9/10
Whitaker RC (2006) ***** ** *** +10/10
Isanaka S (2007) ***** ** *** +10/10
Martin KS (2007) **** ** *** +10/10
Gundersen C (2009) **** ** *** +9/10
Metallinos-Katsaras E (2009) **** ** *** +9/10
DuboisL (2011) ***** ** *** +10/10
Kac G (2012) ***** ** *** +10/10
Kaur J (2015) ***** ** *** +10/10
Trappmann JL (2015) ***** ** *** +10/10
Holben DH (2015) **** ** *** +9/10
Hernandez DC (2016) ***** ** *** +10/10
Papas MA (2016) **** ** *** +9/10
Speirs KE (2016) **** ** *** +9/10
Gubert MB (2016) ***** ** *** +10/10
Jones AD (2016) ***** ** *** +10/10
Jafari F (2017) ***** ** *** +9/10
Bhawra J (2017) **** ** *** +9/10
Shamah-Levy T (2017) **** ** *** +10/10
Swindle (2018) *** ** *** +8/10
Yeganeh (2018) *** ** *** +8/10
Wu (2019) **** ** *** +9/10
Au (2019) **** ** *** +9/10
Lee (2019) **** ** *** +9/10
Gipson-Jones (2019) *** ** *** +8/10

Each star represents one point from Newcastle Ottawa score

Supplementary Table 2.

Quality assessment of included longitudinal studies using the Newcastle-Ottawa scale

First Author (year) Selection Comparability Features of outcome Quality Score
Rose D (2006) ***** ** *** +10/10
Dubois L (2006) ***** ** *** +10/10
Gundersen C (2008) ***** ** *** +10/10
Rosas LG (2011) ***** ** *** +10/10
Metallinos-Katsaras E (2012) **** ** *** +9/10
Lohman BJ (2016) ***** ** *** +10/10

Each star represents one point from Newcastle Ottawa score

Quantitative synthesis

The extracted odds ratio was analyzed to assess the relationship between FI and the risk of childhood and adolescent OW/OB. As illustrated in Figure 2, there was no relationship between FI and risk of OW/OB in under 18 years individuals (OR = 1.02 95% CI: 0.99, 1.05) by using the random-effects model. Heterogeneity also existed in the articles (P < 0.001, I2 = 75.1%). Moreover, subgroup analysis according to type of FI assessment including household (OR = 1.03 95% CI: 0.99, 1.06) or child FI (OR = 1.04 95% CI: 0.97, 1.12) did not show relationship between FI status and the risk of childhood OW/OB [Figure 3]. However, FI with enhanced risk of childhood OW/OB in developed countries (OR = 1.06; 95% CI: 1.02, 1.10), but not developing countries (OR = 0.96; 95% CI: 0.90, 1.03), [Figure 4].

Figure 2.

Figure 2

Forest plots investigating the association of food security status and risk of childhood overweight/obesity in all included studies (2001–2017) (OR with 95% CI). All comparison was conducted with food secure subjects (referent)

Figure 3.

Figure 3

Forest plots showing investigating the association of food security status and risk of childhood overweight/obesity in different subgroups of food security assessment method (Childhood/household food insecurity assessment) (2001–2017) (OR with 95% CI). All comparison was conducted with food secure subjects (referent)

Figure 4.

Figure 4

Forest plots showing investigating the association of food security status and risk of childhood overweight/obesity in different subgroups of economic development level (developed/developing countries) (2001–2017) (OR with 95% CI). All comparison was conducted with food secure subjects (referent)

Other subgroup based on examining the relationship between categorized FI and the risk of OW/OB is shown in Table 2. As shown in Table 2, Subgroup analysis by race/ethnicity and gender, level of FI and FI evaluation method in children showed no significant association [Table 2]. However subgroup by economic levels demonstrated that lower degree of national economic development significantly decreased risk of OW/OB among under 6 year children (OR = 0.88; 95% CI: 0.84, 0.93).

Table 2.

Subgroup analysis to assess the association between food security status and risk of childhood and adolescent overweight and obesity (2001-2019)

Subgrouped by* No. of studies Pooled OR1 95% CI I2 (%) P for heterogeneity
Age
Children (under 6 year)
 Food insecurity level
  Mild food insecurity 2 0.98 0.84, 1.13 87.6 0.04
  Moderate food insecurity 3 0.99 0.84, 1.15 79.7 0.07
  Sever food insecurity 3 1.09 0.80, 1.48 90.3 <0.001
 Gender
  Girls 5 0.93 0.86, 1.00 0.0 0.56
  Boys 4 0.98 0.90, 1.07 0.0 0.98
  Both 10 1.02 0.93, 1.11 76.9 <0.001
 Race/ethnicity
  Hispanic 5 0.96 0.84, 1.09 50.0 0.09
  Mixed 8 0.99 0.93, 1.05 55.6 0.03
 Assessment method
  Child Food Insecurity 2 0.95 0.70, 1.38 0.0 0.42
  Household Food Insecurity 11 0.99 0.93, 1.06 63.2 0.001
 Economic development level
  Developed 9 1.02 0.95, 1.09 56.8 0.01
  Developing 4 0.88 0.84, 0.93 0.0 0.42
Children (6-12 year)
 Gender
  Girls 2 1.31 0.58, 2.99 94.1 <0.001
  Boys 2 0.97 0.64, 1.49 69.7 0.06
  Both 3 1.00 0.94, 1.07 47.4 0.07
 Race/ethnicity
  Hispanic 2 1.01 0.87, 1.17 0.0 0.55
  White 2 1.20 0.69, 2.11 95.3 <0.001
  Mixed 3 1.03 0.90, 1.18 80.9 0.005
 Assessment method
  Child Food Insecurity 3 1.01 0.90, 1.14 43.9 0.16
  Household Food Insecurity 4 1.05 0.93, 1.18 76.5 <0.001
 Economic development level
  Developed 3 1.06 0.94, 1.19 84.5 <0.001
  Developing 3 0.94 0.80, 1.12 40.7 0.18
Adolescents (12-18 year)
 Food insecurity level
  Mild food insecurity 4 1.12 0.99, 1.26 81.50 0.001
  Moderate food insecurity 4 1.13 0.99, 1.30 79.8 0.001
  Sever food insecurity 4 1.24 1.03, 1.49 83.3 0.001
 Race/ethnicity
  Hispanic 2 1.02 0.96, 1.08 10.5 0.29
  Mixed 4 1.06 0.98, 1.15 90.4 0.0
 Economic development level
  Developed 4 1.14 1.02, 1.27 72.2 0.006
  Developing 5 0.97 0.88, 1.07 51.1 0.10

1Calculated by Random-effects model. *All comparison was conducted with food secure subjects (referent)

The specific outcomes by categorized FI for adolescents from 12 to 18 years old are shown in Table 2. These outcomes showed that sever FI associated with the increased risk of OW/OB (OR = 1.24 95% CI: 1.03-1.49); but mild or moderate FI also did not indicate any relationship with risk of OW/OB. Further subgroup by economic levels indicated that lower levels of economic development significantly increased risk of OW/OB among 12- to 18-year-old adolescents (OR = 1.14; 95% CI: 1.02, 1.27) living in developed countries.

Sensitivity analysis

Sensitivity analysis was conducted by removing each of the articles. The outcomes revealed that the OR was not changed sharply by removing each individual article. This showed the meta-analysis outcomes were constant and not sensitive to any one of the 32 articles [Figure 5].

Figure 5.

Figure 5

Forest plot of sensitivity analysis of all included studies

Publication bias

No evidence of publication bias in articles relevant to FI and OW/OB risk in under 18 years individuals was observed, according to the outcome of Begg's test (P = 0.722) and Egger's test (P = 0.289). As illustrated in Figure 6, the funnel plot revealed to be symmetrical, which showed there was no obvious publication bias. Furthermore, the filled funnel plot showed that any study might not have been published [Figure 7].

Figure 6.

Figure 6

Funnel plot of food security status and risk of childhood and adolescents OW/OB

Figure 7.

Figure 7

Filled funnel plot showing filled studies

Discussion

Currently, the relationship between FI status and OW/OB in youth populations is very important for researchers. Different results exist regarding the relationship between FI status with the childhood and adolescent OW/OB risk. Present research, as first study was performed of the quantitative estimates were made of the associations between IF and the risk of OW/OB among under 18 years indivituals.

The results found no overall assocition between FI and OW/OB risk in under 18 years indivituals. Currently, the FI-obesity paradox is considered as an obesity risk factor in food-insecure households. Nettel et al.,[60] according to the insurance hypothesis (IH), demonstrated that obesity in FI condition is originated in adaptive evolutionary thinking: the function of storing fat is to provide a buffer against shortfalls in the food supply. Thus, people may store higher adipose tissue when they receive cues that availability to food is unsure.[60] In addtion, Dhurandhar et al.,[61] according to hypothesis known as a “resource scarcity hypothesis,” speculated that fattening is a physiologically regulated response to threatened food supply, which occurs specifically in low social status individuals. Nevertheless, in accordance with our findings the latest epidmiological study conducted by Eisenmann et al.[24] reported no difference between the association of FI and OW/OB risk anong children. Although, Eisenmann et al.[24] did suggest that sex and race may mediate the relationship between FI and rsik of OW/OB in children. However in present meta-analysis in category of children under 6 years, any significant association were not found in all subgroups of sex and ethnicity. The mechanisms of association between FI with the OW/OB risk in children are still not well understood. One possibility is that mothers supply enough meals for their children by decreasing their own meals.[42] Children may also have availability to better quality intake than their family.[42] This opinion may be confirmed by the results of recent adult epidmiological studies. Moradi et al.[16] and Franklin et al.[23] reported that adults in FI condition, were at risk of obesity. Hence, maternal care for under 6 years children can be recognized as a main factor for the prevention of OW/OB in FI conditions. Even though, this maternal care and support led to lower food quality, and finally could associate to inhanced risks of obesity in women.

Other noteworthy results among children and adolescents (12–18 years) is that sever FI increased the risk of OW/OB, whereas lower levels of FI did not. Conversely to preschool and lower-aged children, it seems that among the 12- to 18-year-old population (with decreased maternal care and support), there is an increase in the OW/OB risk for sever FI level. Moreover, FI has an effect on adolescent OW/OB through mechanisms that have been proposed in previous studies, such as: calorie dense foods[26,43]; nutrient-poor meals[31]; lower intakes of high quality protein source and more intakes of snack meals[41]; higher eating when food is accessible and metabolic changes to ensure enough uses of energy[26,43]; parenting or feeding styles[62]; psychological or mental dioeders[38,62]; different standards for a healthy diet; and pregnancy FI.[43] Further rigorous evidence is yet required to understand the effects of FI on the risk of OW/OB in under 18 years individuals.

In addition, another main results of the current research indicated that according to national economic development degree there was association between FI and the risk of OW/OB in 18 years individuals. In similar results, recent meta-analysis[16] in adults showed that socioeconomic level was an important factor affecting weight status. The lower subjective socioeconomic level was associated with changes in several metabolic hormones, for example, increases in neuropeptide Y (NPY),[63] insulin[64,65] and cortisol,[66] which may lead to obesity. Furthermore, individuals who had a lower subjective socioeconomic level indicated an increase in active ghrelin, leading to lower feelings of fullness and satiety, compared with those at a higher socioeconomic level.[67] These associations may be amplified by obesogenic environments in developed countries (such as higher psychosocial stress and biological functioning, access to energy-dense and low-nutrient foods), leading to increased risks of OW/OB.[68]

Strengths and limitations

The important power of present meta-analysis is the high number of articles assessed. The high number of articles leads to a better and more accurate conclusion. Moreover, several subgroup analyses according to age, gender, FI level, national development level, and food security assessment tools, are important strengths and unique aspects of the present study. Several limitations of current study should be noted. (1) High heterogeneity was existed in the statistical analysis, even though several subgroups and sensitivity analyses were conducted. (2) Notwithstanding the several articles published relevant to the relationship between FI and the risk of OW/OB among children and adolescents, only some articles assessed FI with reference to the risk of abdominal obesity. (3) Although the scale of food security assessment did not affect the results, most studies used the household scale instead of a child food security scale. The use of household food security data in assessing the child's food security level may increase possible errors. (4) A number of studies[21,22,26,33,37,38] reported wide age-range (6–18) results. This reporting method led to a limitation in this paper's subgroup analyses. (5) Many of the studies included were conducted in developed countries[20,21,22,25,26,27,29,30,32,34,36,37,38,39,40,42,49,50,52] with only a relatively small number of studies being conducted in developing countries.[27,31,35,41,43,48,51]

Conclusions

In summarize, the current study demonstrated that there was no association between FI status and risk of OW/OB in under 18 year individuals. However, this analysis implied that sever FI level may be related with a significant OW/OB risk in adolescents. Moreover, the economic development status had positive association with the relationship between FI and increased the risk of OW/OB in under 18-year individuals. Performing program to decrease the OW/OB risks by facilitating the bioavailability of essential nutrients, fortified, and complementary foods and following dietary guidelines-”as well as improving infant and young child feeding (IYCF) practices[69] -”should be integrated into poverty rebate programs. Additional longitudinal research with adjusting main obesity related factor such as physical activity or energy intake are required to acceptance the possible association between FI and the OW/OB risk in under 18-year individuals. Additionally, it is proposed that in next researches, more consideration to the association between FI and central obesity.

Financial support and sponsorship

Nil.

Conflicts of interest

There are no conflicts of interest.

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