Disparities in Sources of Added Sugars and High Glycemic Index Foods in Diets of US Children, 2011–2016

Rienna G. Russo, MHS¹; Brandilyn A. Peters, PhD²; Vanessa Salcedo, MD, MPH¹; Vivian HC Wang, RD, MS, MPA³; Simona C. Kwon, DrPH, MPH¹; Bei Wu, PhD⁴; Stella Yi, PhD, MPH¹ (View author affiliations)

Suggested citation for this article: Russo RG, Peters BA, Salcedo V, Wang VH, Kwon SC, Wu B, et al. Disparities in Sources of Added Sugars and High Glycemic Index Foods in Diets of US Children, 2011–2016. Prev Chronic Dis 2020;17:200091. DOI: http://dx.doi.org/10.5888/pcd17.200091external icon.

PEER REVIEWED

Abstract

Introduction

Added sugars and high glycemic index (GI) foods might play a role in cardiometabolic pathogenesis. Our study aimed to describe the top sources of added sugars and types of high GI foods in diets of children by race/ethnicity.

Methods

We examined data for 3,112 children, aged 6 to 11 years from the National Health and Nutrition Examination Survey (NHANES), 2011 to 2016. Mean intake was estimated and linear regression models tested for differences by race/ethnicity. Population proportions for food sources were created and ranked, accounting for survey weighting when appropriate.

Results

Asian American and Mexican American children had the lowest reported added sugar intake. Cereals were observed to contribute highly to added sugar intake. Soft drinks did not contribute as much added sugar intake for Asian American children as it did for children of other races/ethnicities. Asian American children consumed significantly more high GI foods than other groups. Types of high GI foods differed meaningfully across racial/ethnic groups (ie, Mexican American: burritos/tacos; other Hispanic, White, and Black: pizza; Asian American: rice). Rice accounted for 37% of total high GI foods consumed by Asian American children.

Conclusions

Sources of added sugars and types of high GI foods in children’s diets vary across racial/ethnic groups. Targeting foods identified as top sources of added sugars for all race/ethnicities and focusing on substitution of whole grains may reduce obesity, diabetes, and related cardiometabolic risk more equitably.

Top

Introduction

Childhood obesity remains a challenge, despite numerous policies and programs focused on improving nutrition and increasing physical activity among children (1). Disparities in obesity, diet, and physical activity are clear for Hispanic and Asian American children, but data are limited (2–4). According to national and local estimates, the burden of obesity is highest for Hispanic children in the United States. Although obesity prevalence is lowest among Asian American children (3), anthropomorphic differences (eg, high percentage body fat, low muscle mass) among Asian populations have led to the broad consensus that current definitions of overweight and obesity likely underestimate the true burden of the metabolic effects of obesity among Asian American children (5). Evidence is mounting about the long-term vulnerability of these children; Hispanic and Asian American children are at the highest risk for nonalcoholic fatty liver disease (6); therefore, they are at greater risk than children of other races/ethnicities for cardiometabolic problems throughout the life course. Yet, few studies have focused on these population subgroups.

Studies have also recognized that the top dietary sources of sodium and preferred types of beverages for Hispanic and Asian Americans are different from those for non-Hispanic White and Black Americans (4,7), despite that most nutrition policies and programs target non-Hispanic White and Black Americans. This implies a mismatch of initiatives to improve nutrition for Hispanic and Asian American children. Incompatible cultural policies and programs, lack of attention to equitable implementation, and prolonged disparate funding will lead to greater disparities in obesity and nutrition over time for Hispanic and Asian American children (8,9).

Added sugars have been implicated as a leading predictor of dietary cardiometabolic concerns amongst children, including obesity, diabetes, and nonalcoholic fatty liver disease (10–12). Added sugars do not include naturally occurring sugars, such as lactose in milk and fructose in 100% fruit juice (13). Refined grains and other foods with a high glycemic index (GI) might also contribute to cardiometabolic conditions, because insulin resistance is involved in future diabetes and development of nonalcoholic fatty liver disease. High glycemic load results in increased risk of insulin dysregulation as well. Excess weight gain, elevated blood pressure, and type 2 diabetes all share links to added sugar and consumption of high GI food (11,14–16).

The leading source of added sugars in children’s diets is often sugar-sweetened beverages; however, no research has investigated other sources of added sugars that are most often consumed by racial/ethnic groups. Additionally, refined grains and other high GI foods might play a significant role in diabetes and the development of nonalcoholic fatty liver disease, especially among Asian American and other Hispanic (non-Mexican) populations for whom rice is traditionally a staple food (17). Because these are potential food sources of cardiometabolic risk among children, our study aimed to 1) examine racial/ethnic differences in amounts of calories and added sugars consumed, 2) examine high GI food intake, 3) identify the top 10 sources of added sugars and types of high GI foods, and 4) stratify findings by race/ethnicity.

Top

Methods

The National Health and Nutrition Examination Survey (NHANES) is a cross-sectional study designed to assess the health and nutrition of the US population. NHANES uses a stratified, multistage probability sampling design to recruit a nationally representative sample of participants. Participant data are collected through in-person household interviews and follow-up health examinations each year, then released in a series of 2-year cycles. Details of the survey, including its content and operations, are publicly available (https://www.cdc.gov/nchs/nhanes/index.htm). Data from 2011 through 2016 were used in our study, because Asian Americans were oversampled during these cycles (https://www.cdc.gov/nchs/data/series/sr_02/sr02_162.pdf). Children aged 6 to 11 years were included in the study if they had a reliable and complete first of 2 days of dietary recalls.

Sociodemographic characteristics used to describe the sample were self-reported during in-home interviews. Variables included race/ethnicity (Mexican American, other Hispanic, non-Hispanic White, non-Hispanic Black, non-Hispanic Asian American, and non-Hispanic other), sex, nativity (US-born or foreign-born), and poverty index ratio (< 1.0, 1.0–3.0, >3.0) — a measure based on the federal poverty threshold set by the US Census Bureau (18). Data for Hispanic and Asian American subgroups were unavailable because of limited sample sizes. Poverty index ratio and nativity were also used as covariates in regression analyses when assessing differences in mean added sugars and high GI intake by race/ethnicity.

Individual food and beverage items were linked with What We Eat in America (WWEIA) categories, a classification system for foods and beverages released every 2 years (19). We aligned the coding of categories in the 2011–2012 and 2013–2014 WWEIA cycles with the 2015–2016 cycles to account for any changes in the classification scheme.

High GI foods were identified by using the 2008 International Tables of Glycemic Index and Glycemic Load Values (20), and the most common foods were included in the index. Foods were assigned a WWEIA category, on the basis of their description and nutritional content, and average GI and corresponding WWEIA categories were compared.

We estimated means and SDs for energy in calories and added sugars in grams (g). We also estimated percentages of total calories and grams consumed from the high GI foods accounted. Multivariate linear regression models were used to compare mean intake of dietary components by race/ethnicity, adjusting for poverty and nativity, because these characteristics varied among races/ethnicities. Regression coefficients (β) and corresponding 95% CIs were obtained.

Percentages of population were calculated for added sugars and total GI foods by summing the amount consumed in each food category for participants in each racial/ethnic group and dividing the sum by the total amount for all persons in that racial/ethnic group, then multiplying by 100%. The population proportions were then ranked to determine the top 10 food sources of added sugars and types of high GI foods.

We used Stata version 15 (StataCorp LLC) to stratify analyses by race/ethnicity. Stata’s SVY commands were used to account for the complex sampling design and weighting. A 6-year dietary weight was generated by using one-third of the 1-day dietary weight for each 2-year cycle.

Top

Results

A total of 3,112 children were included in our sample. About 1,618 children were White (52%), and 809 (26%) lived below the federal poverty threshold. Most children were US-born (2,939 children, 96%). Some differences by race/ethnicity were observed. Compared with nearly one-half of Mexican American children (268/605, 45%) and Black children (355/779, 46%), only 1 in 7 White (180/799, 15%) and Asian American (31/220, 13%) children were below the poverty threshold. Except for Asian American children, more than 90% of all other racial/ethnic subgroups were born in the United States (Mexican American, 605/659; other Hispanic, 333/365; White, 812/820; Black, 804/823; Other, 198/204). Approximately three-fourths (187/241, 78%) of Asian American children were born in the United States (Table 1).

Mean added sugar consumption was lowest among Mexican American children (mean 21.8 g, SD 22.6) and Asian American children (mean 25.0 g, SD 28.8) and highest among White children (mean 31.9 g, SD 18.6). We observed no significant differences in mean total calories (Figure). No significant differences were observed in caloric intake between Asian American children and other races/ethnicities. Mexican American children consumed significantly less added sugars (−3.2 g, P < .05) and White children consumed significantly more (6.9 g, P < .001) than Asian American children.

Figure.
Mean added sugars consumed by children, by race/ethnicity, and proportion of calories and grams consumed from high glycemic index (GI) foods. Values are based on data from the National Health and Nutrition Examination Survey 2011–2016 (21). Figure A: Comparison of total kilocalories consumed. Figure B. Comparison of total grams of added sugars consumed. Figure C: Comparison of percentage total calories consumed from high glycemic index (GI) foods by race/ethnicity. Figure D: Comparison of percentage total grams consumed from high GI foods. [A tabular version of this figure is also available.]

Candy not containing chocolate was the leading source of added sugars for children among all racial/ethnic subgroups, except for other Hispanic children, whose top source was high-sugar cereal. Baked goods and breakfast foods (eg, ready-to-eat cereal, doughnuts, jams, syrups) appeared most frequently in the top 10 sources of added sugar. For Mexican American and Black children, soft drinks and sweetened fruit drinks were among the top sources, whereas for other Hispanic, Asian American, and other racial/ethnic children only sweetened fruit drinks were among the top sources. For White children, only soft drinks were among the top sources. We identified the top 10 sources of added sugars consumed by children aged 6–11 (Table 2).

Asian American children consumed a greater percentage of their calories from high GI foods compared with all other races/ethnicities (P < .05), even when accounting for US nativity and poverty index. On average, Asian American children consumed more than one-third (mean, 34.8%; SD, 22.6) of their calories from high GI foods, whereas White children consumed about 31% of their calories from high GI foods (mean, 31.0%; SD, 13.1) (Figure).

Asian American children consumed greater quantities of high GI foods (P < .001), even when accounting for US nativity and poverty. On average, 23.8% (SD, 17.62) of total grams consumed in a day were from high-GI foods among Asian American children, whereas 18.8% (SD, 9.9) of total grams consumed in a day were from high GI foods among White children.

The top type of high-GI food was pizza among White, Black, other Hispanic, and other race/ethnicities. Rice was the top type among Asian American children, and burritos and tacos were the top type among Mexican American children. Among Asian Americans, rice accounted for 31% of total high GI foods consumed, or 44% if fried rice and mixed rice dishes were included. Across other race/ethnicities, the top sources accounted for 14% to 17% of total high-GI foods consumed. We also calculated the top 10 types of high GI foods consumed by race/ethnicity (Table 3).

Top

Discussion

We found some similarities in the top sources of added sugars in children’s diets among the races/ethnicities studied. Candy and cereals contributed substantially to added sugar intake, although some differences by race/ethnicity were noted. Soft drinks did not contribute as much added sugar intake for Asian American children, although they were a top source for many other races/ethnicities. Rice was a popular high-GI food across multiple racial/ethnic groups. High-GI foods were more prevalent in the diets of Asian American and other Hispanic children, groups disproportionately burdened by nonalcoholic fatty liver disease.

Breakfast foods (eg, cereal, baked goods) were major sources of added sugar. Cereal appeared within the top 5 sources across all races/ethnicities. A 2014 analysis of cold cereals sold in the United States found that 92% of cereals had added sugar, and that all cereals that were marketed to children contained added sugar. On average, children’s cereals have 40% more sugar than cereals marketed to adults and may contain more sugar than cookies (22). Television advertising of high-sugar breakfast cereals that is directed at children has been positively associated with higher intake of high-sugar cereals (23). Our findings support recommendations and efforts to restrict child-directed marketing to limit excessive sugar consumption.

Soft drinks did not contribute to added sugar intake among Asian Americans in high quantities or similar amounts to children of other race/ethnicities. Current initiatives aimed at reducing added sugar intake have focused on taxing sugar-sweetened beverages, specifically soft drinks. Given our findings, such taxes might not be effective with Asian Americans. Focusing on reducing sugary drinks is imperative given the prevalence of their consumption and resultant adverse health effects (24), but additional efforts should be made to target other unhealthy dietary behaviors that contribute to added sugar consumption and to focus on foods, shifting the conversation from single nutrients to dietary patterns.

In 2016, the US Food and Drug Administration established that added sugar content would be included on the Nutrition Facts Panel (NFP) of products to call attention to hidden sugars in foods (eg, cereals) (25). A study conducted before the final ruling aimed to measure whether the proposed changes to the panel would influence young adults’ purchase intentions. Although many of that study’s participants viewed the added sugars component on the panel, participants exhibited no changes in purchase intentions (25). Although changing nutrition labeling might not be enough to change consumer behavior, it might stimulate the industry to reformulate products. In 2003, the Food and Drug Administration required the disclosure of trans fat content on the Nutrition Facts panel, which led to industry reformulation of ingredients (26).

Rice was the leading type of high-GI food consumed by Asian Americans. Asian American children consumed more grams and calories of high-GI foods than did children of other races/ethnicities. Considering the link between diabetes, nonalcoholic fatty liver disease, and refined grains, greater consumption of high-GI foods might contribute to the high burden of those conditions among Asian Americans (17). Promotion of whole grain options, such as brown rice, which has a lower GI than white rice, may help reduce cardiometabolic risk among Asian American populations. Most research has focused on using low-carbohydrate and low-GI diets as treatment; future research should investigate whether these diets are also effective at prevention. Furthermore, given low levels of physical activity among Asian American children (27) and a lack of emphasis on exercise stemming from traditional social norms, (28) future efforts should consider physical fitness as part of the lifestyle change that includes diet modification.

Our study was the first to evaluate sources of added sugar and high GI foods among Asian American children and other races/ethnicities. Previous studies that have assessed nutrient sources have not included Asian Americans (28). However, our study has some limitations. Results of interviews about diet may not represent actual intake; rather, they provide a cross-sectional view of dietary intake for 1 day. Despite this, numerous studies have used 1 day of dietary recall to assess sources of dietary nutrients (28,29). Sample size restrictions prevented us from reporting beyond the aggregate Asian American group in the NHANES data. In addition to differences in demographics among Asian Americans by ethnic subgroup and country of origin, large variability exists in cardiometabolic risk (30).

Because NHANES is a nationally representative sample, we believe our findings are largely generalizable to US children. However, previous studies that included Asian Americans reported data that were skewed to high-income and well-educated individuals. As such, results might not represent low-income and less-educated Asian Americans in the NHANES sample (31).

Sources of added sugars in children’s diets varied across racial/ethnic groups. Policies and programs to reduce sugar intake might help to reduce the risk of developing cardiometabolic health conditions and help reverse the negative health effects of the disease. Current initiatives to reduce excess sugar intake through soda taxes may not effectively reach Asian American children, considering the variation in consumption patterns observed in our study. Additional strategies that consider specific foods identified as top sources of added sugars for all races/ethnicities (eg, cereal) and refined grains are needed to more equitably reduce diet-related risk of cardiometabolic disease.

Top

Acknowledgments

This research was supported in part by the National Institutes of Health (NIH), National Institute on Minority Health and Health Disparities (grant no. U54MD000538); the National Heart, Lung, and Blood Institute (grant no. R01HL141427); and the Walmart Foundation. The authors have no financial relationships relevant to the research or the resulting article to disclose. No borrowed materials, copyrighted surveys, instruments, or tools were used in the conduct of this research or in the preparation of this article. Findings and conclusions in this article are those of the authors and do not necessarily represent the official views of NIH or the Centers for Disease Control and Prevention.

The following Supplemental Materials are available upon request from the corresponding author: Supplementary Table 1, Average Glycemic Index and Corresponding, What We Eat in America Categories; and, Supplementary Table 2, Comparisons of Mexican American, White, and Asian American Children’s Added Sugar Consumption.

Top

Author Information

Corresponding Author: Rienna Russo, MHS, New York University, School of Medicine, Department of Population Health, 180 Madison Avenue, New York, NY 10006. Telephone: 646-501-3482. Email: rienna.russo@nyulangone.org.

Author Affiliations: ¹New York University, School of Medicine, Department of Population Health, New York, New York. ²Albert Einstein College of Medicine, Department of Epidemiology and Population Health, Bronx, New York. ³New York University, School of Global Public Health, New York, New York. ⁴New York University, Rory Meyers College of Nursing, New York, New York.

Top

References

1. Russo R, Li Y, Chong S, Siscovick D, Trinh-Shevrin C, Yi S. Dietary policies and programs in the United States: a narrative review. Prev Med Rep 2020;19:101–135. PubMedexternal icon
2. Guerrero AD, Ponce NA, Chung PJ. Obesogenic dietary practices of Latino and Asian subgroups of children in California: an analysis of the California Health Interview Survey, 2007–2012. Am J Public Health 2015;105(8):e105–12. PubMedexternal icon
3. Ogden CL, Carroll MD, Lawman HG, Fryar CD, Kruszon-Moran D, Kit BK, et al. Trends in obesity prevalence among children and adolescents in the United States, 1988–1994 through 2013–2014. JAMA 2016;315(21):2292–9. PubMedexternal icon
4. Yi SS, Edens N, Lederer A, Pan J, Li Yan, Kwon Simona, et al. Dietary disparities of urban Chinese American children in New York City, NY: results from a pilot study. Preprints. 2018; CrossRefexternal icon
5. WHO Expert Consultation. Appropriate body-mass index for Asian populations and its implications for policy and intervention strategies. Erratum in Lancet. 2004;363(9412):902. CrossRefexternal icon PubMedexternal icon
6. Anderson EL, Howe LD, Jones HE, Higgins JP, Lawlor DA, Fraser A. The prevalence of non-alcoholic fatty liver disease in children and adolescents: a systematic review and meta-analysis. PLoS One 2015;10(10):e0140908. PubMedexternal icon
7. Russo R, Northridge ME, Wu B, Yi SS. Factors associated with sugar-sweetened beverage consumption among children and adolescents in the United States by race/ethnicity: NHANES 2011–16. J Racial Ethn Health Disparities.
8. McGill R, Anwar E, Orton L, Bromley H, Lloyd-Williams F, O’Flaherty M, et al. Are interventions to promote healthy eating equally effective for all? Systematic review of socioeconomic inequalities in impact. BMC Public Health 2015;15(1):457–72. PubMedexternal icon
9. Ðoàn LN, Takata Y, Sakuma KK, Irvin VL. Trends in clinical research including Asian American, Native Hawaiian, and Pacific Islander participants funded by the US National Institutes of Health, 1992 to 2018. JAMA Netw Open 2019;2(7):e197432. CrossRefexternal icon PubMedexternal icon
10. Jensen T, Abdelmalek MF, Sullivan S, Nadeau KJ, Green M, Roncal C, et al. Fructose and sugar: a major mediator of non-alcoholic fatty liver disease. J Hepatol 2018;68(5):1063–75. PubMedexternal icon
11. Faruque S, Tong J, Lacmanovic V, Agbonghae C, Minaya DM, Czaja K. The dose makes the poison: sugar and obesity in the United States — a review. Pol J Food Nutr Sci 2019;69(3):219–33. PubMedexternal icon
12. Wang J, Light K, Henderson M, O’Loughlin J, Mathieu ME, Paradis G, et al. Consumption of added sugars from liquid but not solid sources predicts impaired glucose homeostasis and insulin resistance among youth at risk of obesity. J Nutr 2014;144(1):81–6. PubMedexternal icon
13. Bowman S, Clemens J, Shimizu M, Friday J, Alanna J, Moshfegh A. Food patterns equivalents database 2015–2016: methodology and user guide. In: 2018. US Department of Agriculture, Beltsville, Maryland.
14. Vos MB, Kaar JL, Welsh JA, Van Horn LV, Feig DI, Anderson CAM, et al.American Heart Association Nutrition Committee of the Council on Lifestyle and Cardiometabolic Health; Council on Clinical Cardiology; Council on Cardiovascular Disease in the Young; Council on Cardiovascular and Stroke Nursing; Council on Epidemiology and Prevention; Council on Functional Genomics and Translational Biology; and Council on Hypertension. Added sugars and cardiovascular disease risk in children: a scientific statement from the American Heart Association. Circulation. 2017135(19):e1017-e1034. https://10.1161/CIR.0000000000000439 PubMedexternal icon
15. Gopinath B, Flood VM, Rochtchina E, Baur LA, Smith W, Mitchell PJH. Influence of high glycemic index and glycemic load diets on blood pressure during adolescence. Hypertension 2012;59(6):1272–7.
16. Villegas R, Liu S, Gao YT, Yang G, Li H, Zheng W, et al. Prospective study of dietary carbohydrates, glycemic index, glycemic load, and incidence of type 2 diabetes mellitus in middle-aged Chinese women. Arch Intern Med 2007;167(21):2310–6. CrossRefexternal icon PubMedexternal icon
17. Zhang G, Malik VS, Pan A, Kumar S, Holmes MD, Spiegelman D, et al. Substituting brown rice for white rice to lower diabetes risk: a focus-group study in Chinese adults. J Am Diet Assoc 2010;110(8):1216–21. CrossRefexternal icon PubMedexternal icon
18. US Census Bureau. How the Census Bureau measures poverty. US Census Bureau. n.d.Updated August 26, 2020. https://www.census.gov/topics/income-poverty/poverty/guidance/poverty-measures.html. Accessed October 1, 2020.
19. US Department of Agriculture, Agricultural Research Service, Beltsville Human Nutrition Research Center, Food Surveys Research Group and US Department of Health and Human Services, Centers for Disease Control and Prevention, National Center for Health Statistics. What we eat in America, NHANES 2015–2016. Washington, DC. https://data.nal.usda.gov/dataset/what-we-eat-america-wweia-database. Accessed October 1, 2020.
20. Atkinson FS, Foster-Powell K, Brand-Miller JC. International tables of glycemic index and glycemic load values: 2008. Diabetes Care 2008;31(12):2281–3.
21. Centers for Disease Control and Prevention. NHANES survey methods and analytic guidelines. Updated August 8, 2020. Accessed October 1, 2020. https://wwwn.cdc.gov/nchs/nhanes/analyticguidelines.aspx.
22. Environmental Working Group. Children’s cereals: cereals contain far more sugar than experts recommend. 2014; https://www.ewg.org/research/childrens-cereals.
23. Emond JA, Longacre MR, Drake KM, Titus LJ, Hendricks K, MacKenzie T, et al. Exposure to child-directed TV advertising and preschoolers’ intake of advertised cereals. Am J Prev Med 2019;56(2):e35–43.
24. Frantsve-Hawley J, Bader JD, Welsh JA, Wright JT. A systematic review of the association between consumption of sugar-containing beverages and excess weight gain among children under age 12. J Public Health Dent 2017;77(•••Suppl 1):S43–66. CrossRefexternal icon
25. Graham DJ, Roberto CA. Evaluating the impact of US Food and Drug Administration-proposed nutrition facts label changes on young adults’ visual attention and purchase intentions. Health education and behavior: the official publication of the Society for Public Health Education. Health Educ Behav 2016;43(4):389–98.
26. Huang Y, Pomeranz J, Wilde P, Capewell S, Gaziano T, O’Flaherty M, et al. Adoption and design of emerging dietary policies to improve cardiometabolic health in the US. Curr Atheroscler Rep 2018;20(5):25–49. CrossRefexternal icon
27. Yi SS, Edens N, Lederer A, Pan J, Li Y, Kwon S. et al.Dietary disparities in urban Chinese American schoolchildren: results from a mixed methods pilot study. J Acad Nutr Diet.
28. Reedy J, Krebs-Smith SM. Dietary sources of energy, solid fats, and added sugars among children and adolescents in the United States. J Am Diet Assoc 2010;110(10):1477–84. CrossRefexternal icon PubMedexternal icon
29. Drewnowski A, Rehm CD. Consumption of added sugars among US children and adults by food purchase location and food source. Am J Clin Nutr 2014;100(3):901–7. CrossRefexternal icon PubMedexternal icon
30. Adia AC, Nazareno J, Operario D, Ponce NA. Health conditions, outcomes, and service access among Filipino, Vietnamese, Chinese, Japanese, and Korean Adults in California, 2011–2017. Am J Public Health 2020;110(4):520–6. CrossRefexternal icon PubMedexternal icon
31. Chong DH, Kwon SC, Yi SS. Comparing characteristics of Asian American populations represented in national vs. community level datasets. Paper presented at American Public Health Association 2019. Annual Meeting and Expo2019; Philadelphia, PA.

Top

Tables

Abbreviation: NHANES, National Health and Nutrition Examination Survey.
^a Values are percentage (95% CI).
^b Measures based on the federal poverty threshold set by the US Census Bureau.

Abbreviation: NHANES, National Health and Nutrition Examination Survey.
^a National Health and Nutrition Examination Survey 2011–2016 (21).
^b Cumulative percentage is the running total of percentage values. For a given source of sugar, the cumulative percentage represents the combined percentage of added sugars from that source and all sources with a higher ranking. Only the top 10 sources are shown; therefore, cumulative percentage does not add to 100%.

Abbreviation: NHANES, National Health and Nutrition Examination Survey.
^a National Health and Nutrition Examination Survey 2011–2016 (21).
^b Cumulative percentage is the running total of percentage values. For a given source of sugar, the cumulative percentage represents the combined percentage of added sugars from that source and all sources with a higher ranking. Only the top 10 sources are shown; therefore, cumulative percentages do not add to 100%.

Top