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Article

Food Sources of Shortfall Nutrients among Latin Americans: Results from the Latin American Study of Health and Nutrition (ELANS)

by
Ana Carolina Barco Leme
1,2,*,
Regina Mara Fisberg
3,
Aline Veroneze de Mello
3,
Cristiane Hermes Sales
3,
Gerson Ferrari
4,
Jess Haines
2,
Attilo Rigotti
5,
Georgina Gómez
6,
Irina Kovalskys
7,8,
Lilia Yadira Cortés Sanabria
9,
Marianella Herrera-Cuenca
10,
Martha Cecília Yépez Garcia
11,
Rossina G. Pareja
12 and
Mauro Fisberg
1
1
Center for Excellence in Nutrition and Feeding Difficulties, Sabará Children’s Hospital, PENSI Institute, São Paulo 012228-200, Brazil
2
Department of Family Relations and Applied Nutrition, University of Guelph, Guelph, ON N1G2W1, Canada
3
Department of Nutrition, School of Public Health, University of São Paulo, São Paulo 01246-904, Brazil
4
Universidad de Santiago de Chile (USACH), Escuela de Ciências de la Actividad Física, el Deporte y la Salud, Santiago 750-0618, Chile
5
Center of Molecular Nutrition and Chronic Diseases, Department of Nutrition, Diabetes, and Metabolism, School of Medicine, Pontifical Catholic University of Chile, Santiago 833-0024, Chile
6
Department of Biochemistry, School of Medicine, University of Costa Rica, San José 11501-2060, Costa Rica
7
Faculty of Medicine, Pontifical Catholic University of Argentina, Buenas Aires C1107AAZ, Argentina
8
Commiteee of Nutrition and Wellbeing, International Life Science Institute (ILSI-Argentina), Buenos Aires C1059ABF, Argentina
9
Department of Nutrition and Biochemistry, Pontifical Univeristy of Javeriana, Bogota 1101111, Colombia
10
Center for Development Studies, Central University of Venezuela/Bengoa Foundation, Caracas 1010, Venezuela
11
College of Health Science, University of San Francisco Quito, Quito 17-1200-841, Ecuador
12
Nutrition Research Institute, La Molina, Lima 15026, Peru
*
Author to whom correspondence should be addressed.
Int. J. Environ. Res. Public Health 2021, 18(9), 4967; https://doi.org/10.3390/ijerph18094967
Submission received: 1 April 2021 / Revised: 17 April 2021 / Accepted: 19 April 2021 / Published: 7 May 2021
(This article belongs to the Collection Latin American Study of Nutrition and Health (ELANS))

Abstract

:
Increased consumption of energy-dense, nutrient-poor foods can lead to inadequate intakes of shortfall nutrients, including vitamin A, D, C, and E, dietary folate, calcium, iron, magnesium, potassium, and fiber. The objective was to examine the prevalence of inadequate intake of shortfall nutrients and identify food sources of shortfall nutrients in eight Latin American countries. Data from ELANS, a multi-country, population-based study of 9218 adolescents and adults were used. Dietary intake was collected through two 24 h Recalls from participants living in urban areas of Argentina, Brazil, Chile, Colombia, Ecuador, Peru, and Venezuela. Foods and beverages were classified using the adapted version of the NHANES “What We Eat in America” system. Nutrients inadequacy was estimated using the Institute of Medicine recommendations and descriptive statistics were calculated. Prevalence of inadequacy was above 50% for most of the nutrients, which the exception of vitamin C with a prevalence of inadequacy of 39%. Milk, cheese, seafoods, breads, and fruit juices/drinks were among the top 5 sources for each of the 10 shortfall nutrients examined. Many food categories were top contributors to more than one dietary component examined. Understanding the nutrient intake and food sources can help inform dietary guidance and intervention approaches.

1. Introduction

Dietary factors are leading contributors to poor health, unhealthy weight gain, and chronic disease risk factors worldwide, including in Latin America [1,2]. The Latin American area includes twenty countries, and over 569 million people; most are low- or middle-income countries. The majority of the Latin American countries are experiencing a nutrition transition marked by undernutrition as well as increasing obesity and other chronic non-communicable diseases [3,4,5]. Although increasing studies on diet intake in recent years [6,7], few of them have examined the diet and food intake among Latin American countries.
While many Latin American countries have food-based dietary guidelines that promote the intake of nutrient-dense foods, such as fruit and vegetables, eggs, and milk and milk products, [1] many Latin Americans are not meeting their nutrients needs [8,9,10]. Therefore, understanding how Latin Americans are eating and their food sources of various nutrients can provide foundational knowledge to help inform public health policies and behavioral change strategies aimed at improving Latin American nutritional outcomes.
Cross-country analyses based on dietary data from the Latin American Study of Health and Nutrition (ELANS) have previously demonstrated a high intake of total energy intake [11], total sugars, and added sugars [12] among 6648 adolescents and adults (15–65 years old) from eight Latin American countries: Argentina, Brazil, Chile, Costa Rica, Colombia, Ecuador, Peru, and Venezuela. The high consumption of energy-dense, nutrient poor foods, suggest an inadequate intake of fruit, vegetables, grains, and milk [13]. This may result in a shortfall of nutrients, including vitamin A, D, E, and C, folate, calcium, magnesium, potassium, and fiber. For female adolescents and women of childbearing age, iron also is a shortfall nutrient. These nutrients have been identified as nutrients of public health concern, because their underconsumption has been linked to adverse health outcomes [14].
Previous analyses of Latin American countries have identified only major groups of energy-intake [11] and nutrients-to-limit sources (i.e., added sugars, saturated fats, and sodium) [13] in adolescents and adult populations. Therefore, there is a lack of studies that identify shortfall nutrients food sources in representative studies in Latin America. The availability of multi-center, representative data from the Latin American Study of Health and Nutrition (ELANS) provides a unique opportunity to investigate the top food and beverages sources of Latin Americans’ intake of shortfall nutrients of public health concern.The objectives of this study were to examine the prevalence of inadequate intake of shortfall nutrients and identify the food sources of shortfall nutrients in eight Latin American countries: Argentina, Brazil, Chile, Colombia, Costa Rica, Ecuador, Peru, and Venezuela.

2. Materials and Methods

Analyses were conducted using the Latin American Study of Health and Nutrition/Estudio Latino Americano de Nutrición y Salud (ELANS) [15] at the University of São Paulo. The ELANS protocol was approved by the Western Institutional Review Board (n° 20140605) and registered in Clinicaltrials.gov (n° NCT02226627). Local research institutes ethics institutional review board from each country also approved the study. All participants provided written informed/assent consent prior to their participation in the study.

2.1. ELANS Overview

ELANS is a multi-country, cross-sectional study that uses a multistage stratified area of probability sample of non-institutionalized individuals that provides representative estimates of the urban Latin American population [15]. ELANS aimed to describe the weight status and lifestyle behaviors (diet intake, physical activity, sedentary time and sleep) representing 80–90% of the urban population of Argentina, Brazil, Chile, Colombia, Costa Rica, Ecuador, Peru, and Venezuela. Data collection was conducted from September 2014 to July 2015. Methods for this study are consistent with the protocols of the ELANS study as described in previous publication [15], along with detailed references on the methods used in this study.

2.2. Sample Study

Data from adolescents and adults from 15 to 65 years old participating in ELANS were used, resulting in a sample of 9218 (52% female). This was a random complex multistage sample, stratified by geographic region, sex, age, and socio-economic status (SES), with random selection of primary and secondary sampling units. The households were selected within each secondary sampling unit, via systematic randomization. The choice of the participant within a household was conducted with 50% of the sample next birthday [16], 50% last birthday [17] methods, controlling for sex, age, and SES. The representative sample size was established with a confidence level of 95% and a maximum error of 3.49%. Sample weighting was applied for each country.

2.3. Dietary Intake Assessment

Dietary intakes were obtained with two 24 h recall (24hR) at the participant home on non-consecutive days, with an interval of up to 8 days between them. The interview was administrated using an automated multiple-pass method [18]. Trained dietitians collected the recall data in Spanish or Portuguese, as appropriate. A detailed description of the dietary interview method is provided elsewhere [11,19]. In summary, foods and beverages reported in the 24hR were converted to energy, macro and micronutrients values using the Nutrition Data System for Research (NDS-R, version 2013) [20]. Because the NDS-R uses the US Department of Agriculture (USDA) food composition database, a standardized procedure matching local foods to USDA foods was conducted by registered dietitians in each country to minimize errors and verify quantities of key nutrients [21]. Food sources of shortfall nutrients vitamins A, D, E, and C, calcium, magnesium, fiber, folate, iron, and potassium were analyzed. In addition, iron was analyzed, since it is considered a shortfall nutrient for female adolescents and childbearing woman [14].
The purpose of collecting two 24hRs was to estimate usual dietary intake and evaluate intra-individual variability in nutrient intakes. To estimate nutrient intake, the Multiple Source Method (MSM) technique was applied (https://msm.dife.de) (accessed on 20 April 2021) [22]. The estimation of usual intakes was conducted individually for each country to minimize errors derived from the method.

2.4. Categorization of Food Sources

The What We Eat in America (WWEIA) food category classification system based on the NHANES database [23] was adapted to the Latin American context. Details on the adaptation of this classification system is published elsewhere [13]. Briefly, to adapt to the Latin American context, all the foods consumed were verified by researchers/dietitians in each of the eight countries and these were added to each WWEIA food groups, and when necessary, additional food groups were created to report local foods consumed in Latin America (most of them were Mixed Dishes—Latin American, beans-based items). To retain its international comparability, the foods were kept in each of the groups even though they were not necessarily most frequently consumed or are not available in the Latin American countries (e.g., egg/breakfast sandwich, diet sports/energy drinks, and different types of milk according to fat contain—usually in these countries there are only three types of milk: whole (3%), reduced-fat (0.6–2.9%), and non-fat milk (≤0.5%)). Fruits widely consumed in the Latin American countries were kept in the category “other fruits/fruit salads”. The food group, baby foods/beverage, was excluded because they were not commonly consumed in this target population. From these fourteen main groups; forty-two subgroups (e.g., “bread, rolls, tortillas”; “100% juices”; and “fruits”); and one-hundred and nine categories (e.g., “yeast breads”, “citrus juice”, and “peaches and nectarines”) were included to determine the rank order of contributors to total energy, total grams, and nutrient-to-limits (added sugars, saturated fat, and sodium) of foods/beverages consumed.

2.5. Sociodemographic and Weight Status Variables

Participants were grouped into 3 age categories (15–19 years; 20–59 years; ≥60 years), with stratification by sex (male and female). Socio-economic status was evaluated by questionnaire using a country-dependent format and based on the legislative requirements or established local standard layouts. This was evaluated creating a categorical (low, middle, and high-income) variable on the basis of the low-income measure, which compares the equivalized per-person income of each country/household with established thresholds for Latin Americans, drawn from national indexes used in each country [15].
Weight status was calculated based on participants height and weight measured in duplicate according to the procedures proposed by the WHO [24]. Body Mass Index (BMI) was calculated as body weight (kg) divided by height in meters squared (m2). The WHO reference was used to determine weight status in adults [24]: underweight (BMI < 18.5 kg/m2), normal weight (BMI = 18.5–24.99 kg/m2), overweight (BMI = 25.0–29.99 kg/m2), and obesity (BMI ≥ 30 kg/m2). Adolescents were classified according to the WHO z-scores for age and sex of each participant [25], considering < −2sd for thinness; > −2 to < +1sd for normal weight, > +1 to < +2sd for overweight, and > +2sd obesity.

2.6. Statistical Analyses

Analyses were conducted using SAS Studio 3.8 (SAS Institute Inc., Cary, NC, USA, 2012–2018). Vitamin A, C, D, and E, folate, calcium, magnesium, fiber, potassium, and iron inadequacy prevalence (%) were estimated according to the Institute of Medicine/Dietary References Intake (IOM/DRI) [26]. Descriptive statistics (means and percentages, with their standard error) for food sources on a population level using SAS PROC RATIO were determined for vitamin A, C, D, and E, folate, calcium, magnesium, fiber, potassium, and iron consumed reported on the day of the 24 h dietary recall. Mean per capita shortfall nutrients consumed from each food group were expressed as percentage of the total to allow relativity across sex and age groups.

3. Results

3.1. Demographics and Lifestyle Characteristics

The sample from the ELANS included 9218 (52% female) respondents aged 15 to 65 years old. By country, the top three countries evaluated in the study were: 21.70% from Brazil, 13.73% in Argentina, and 13.24% in Colombia. BMI (mean ± SE) was 26.91 ± 0.01 kg/m2, with 37.14% defined as normal weight, 34.39% as overweight, and 25.14% as obese. A large proportion of the participants were mixed-raced (48.44%), with 52.03% reporting a low-income SES, and 47.66% being married/living with a partner. The average energy intake was 1999.21 ± 5.23 kilocalories (Table 1).

3.2. Intake of Shortfall Nutrients

The prevalence of inadequacy for all the shortfall nutrients for each of the eight Latin American countries and overall sample is shown in Supplementary Table S1. On average, the participants were below the recommendations for the most of the shortfall nutrients of public health concern. The prevalence of inadequacy was above 50% for most of the nutrients, which the exception of vitamin C with a prevalence of inadequacy of 39%. The percent of participants meeting the recommendation for potassium was below 7.2% for males and 6.9% for females aged 51–65 years. For iron, the percent of participants meeting the recommendation was 4% for males aged 15–18 years and 20.7% for females aged 19–50 years.

3.3. Food Sources of Shortfall Nutrients of Public Health Concern

Table 2 shows the food sources as percentages of all shortfall nutrients of public health concern consumed from the adapted “What We Eat in America (WWEIA)” food categories: vitamin A, D, E, and C; folate, calcium, magnesium potassium, fiber, and iron for the ELANS population. Food sources per country are reported in the Supplementary Tables S2–S11.

3.4. Food Sources of Vitamin A Intake

The five highest ranked food categories for the overall ELANS sample contributed 32% of total vitamin A intake. The percentage contribution of each of these food categories was as follow: 12.6% for liver and organ meats, 5.3% milk, whole, 5.0% margarine, 4.9% carrots, and 4.2% other fruit juices. Brazil has the highest contribution with 61.5% as followed by liver and organ meats (31.9%), other starchy vegetables (8.5%), lettuce and lettuce salads (7.5%), margarine (7.3%), and carrots (6.1%). Chile, on the other hand, has the lowest contribution (42.2%) with 16.9% for lettuce and lettuce salads; 6.6% dips, gravies, other sauces; 6.5% eggs and omelets; 6.4% carrots, and 5.7% cheese.

3.5. Food Sources of Vitamin D Intake

The five highest food categories contributed 58.6% of vitamin D consumed in the overall ELANS sample. The food sources were: 26.3% for milk, whole; 10.7% fish; 8.9% eggs and omelets; 6.5% beef, excludes ground; and 6.2% seafood mixed dishes (e.g., stew fish with palm oil and vegetables “Moqueca de Peixe”; and breaded fish). Peru contributed with 78.5% being the country with highest consumption as follows the categories fish (45.4%); seafood mixed dishes (12.5%—“Ceviche”—raw fish cured on lemon juices); eggs and omelets (9.7%); milk, whole (8.3%); and yogurt, regular (2.6%). Argentina presented the lowest contribution with 47.0%; and categories were 14.5% of milk, whole; 9.1% eggs and omelets; 8.8% turnovers and other grain-based items (e.g., tuna pie); 7.5% milk, reduced fat; and 7.2% fish.

3.6. Food Sources of Vitamin E Intake

The five highest food categories for the percentage of vitamin E consumed contributed 57.2% of the total ELANS sample and included the following items 44.5% tea; 3.8% margarine; 3.6% meat mixed dishes (e.g., breaded meat); 2.9% beans, peas, legumes; and 2.3% rice mixed dishes (e.g., fried rice without meat “guiso de arroz”). Argentina contributed with the highest percentage (82.5%) as the food sources; 62.8% tea, 6.1% salad dressing and vegetable oils, 5.3% meat mixed dishes; 4.9% turnovers and other grain-based items (e.g., meat pies “empanada de carne”); and 3.2% poultry mixed dishes (e.g., breaded chicken). Colombia percentage of top 5 food sources was 31.1%, being the country with the lowest contribution. Eggs and omelets contributed with 7.8%, meat mixed dishes (e.g., meat stew with taro, yams, potato, and pumpkin—“Sancocho”) 6.9%, fruit drinks 5.8%, banana 5.4%, and potato chips 5.2%.

3.7. Food Sources of Vitamin C Intake

The top five categories of ELANS sample contributed to 56.9% and food sources were 17.4% for other fruit juices; 13.3% other fruit and fruit salads; 11.8% citrus juice; 10.8% fruit drinks; and 3.7% banana. Brazil contributed the most with 84.9% and food and beverages sources were other fruit juices (48.7%), other fruit and fruit salads (15.9%), citrus juice (14.2%), tomatoes (3.2%), and fruit drinks (2.9%). Costa Rica has the lowest contribution with 53.1% represented by other fruit and fruit salads (23.8%), citrus juice (13.3%), other vegetables and combinations (6.1%), tomatoes (5.0%), and other red and orange vegetables (4.9%).

3.8. Food Sources of Dietary Folate Intake

The ELANS food sources contributed to 48.7% of folate consume and included 14.7% of yeast bread; 11.1% pancakes, waffles, and French Toast; 9.3% rice; 8.7% beans, peas, and legumes; and 4.9% pasta, noodles, and cooked grains. Chile contributed the most with 61.6% of following food sources: 31.7% yeast breads; 14.1% fish; 6.8% pasta, noodles, and cooked grains; 4.9% other fruit and fruit salads; and 4.0% lettuce and lettuce salads. Costa Rica contributed the least with 56.1%, represented by 21.9% beans, peas, and legumes; 11.2% rice; 10.9% yeast breads; 9.1% other Mexican Mixed Dishes; and 3.1% other fruit and fruit salads.

3.9. Food Sources of Calcium Intake

Overall, 43.7% of contributed to calcium intake, represented by cheese (14.0%), milk, whole (13.2%), pizza (6.5%), yeast breads (5.3%), and pancakes, waffles, and French Toast (4.5%). The lowest contribution was 41.9% in Peru represented by 11.1% of cheese, 10.6% of milk, whole, 8.9% yeast breads, 5.9% sugars and honey, and 5.4% rice. The highest contribution was 63.3% in Venezuela being 34.7% for cheese, 11.2% pancakes, waffles, French Toast, 9.1% turnovers and other grain-based items, 4.1% milk, whole, and 4.0% yeast breads.

3.10. Food Sources of Magnesium Intake

The ELANS sample top five food sources of magnesium contributed to 29.2% of intake, characterized as 9.2% of beans, peas, legumes; 6.2% pancakes, waffles, and French toast; 5.2% rice; 4.5% yeast breads; and 4.1% coffee. Costa Rica contributed to 44.6% of magnesium food sources intake, including beans, peas, and legumes (17.6%), rice (10.2%), other Mexican mixed-dishes (8.1%), coffee (4.5%), and yeast breads (4.2%). The lowest country that contributes to magnesium food sources were Colombia with 29.8% and included 7.1% for bananas, 6.6% rice, 5.9% beans, peas, legumes, 5.3% fruit drinks, and 4.9% coffee.

3.11. Food Source of Potassium Intake

The top five food sources of potassium contributed to 28.5% in the ELANS sample, including beans, peas, and legumes (9.0%), banana (5.8%), beef, excludes ground (5.7%), milk, whole (4.8%), and soups (3.14%). Brazil contributed the most with 37.5%, represented by 13.2% beans, peas, and legumes; 9.1% beef, excludes ground; 6.8% milk, whole; 4.5% chicken, whole pieces; and 3.9% other fruit and fruit salads. Argentine contributed the least with 28.6%, with top five source including, 6.2% for meat mixed dishes (e.g., breaded meat), 5.9% turnovers and other grain-based (e.g., spinach and chard pie), 5.7% tea, 5.5% beef, excludes ground, and 5.4% yeast breads.

3.12. Food Sources of Fiber Intake

The top five food sources of fiber contributing to 49.4% for the ELANS total sample and included tea (19.6%), beans, peas, and legumes (13.9%), pancakes, waffles, and French toast (5.5%), yeast breads (5.4%), and soups (5.1%). Argentina contributed the most with 70.4% of sources, representing 53.9% of tea (e.g., “Herb tea”—Yearba Mate), 8.0% yeast breads, 3.3% other fruit and fruit salads, 2.6% turnover and other grain-based (e.g., spinach and chard pie), and 2.6% pizza. Peru contributed the least with 40.0% and sources included 8.8% yeast breads; 8.4% soups (e.g., legume soup with vegetable—“Sopa de morón con verduras”); 8.4% other fruit and fruit salads; 8.1% beans, peas, and legumes; and 6.5% white potatoes, baked or boiled.

3.13. Food Sources of Iron Intake

The top five sources of iron intake contribute to 41.6% of the ELANS sample, including 9.4% yeast breads; 9.3% rice; 9.2% beans, peas, and legumes; 8.9% pancakes, waffles, and French Toast; and 4.7% beef, excludes ground. Brazil contribution of five food sources were 54.3% representing 16.2% yeast breads; 13.7% beans, peas, and legumes; 11.4% rice; 9.4% beef, excludes ground; and 3.6% chicken, whole pieces. On the order hand, Colombia contributed to 38.0% as following food sources: 12.1% rice; 9.2% yeast breads; 7.6% beans, peas, and legumes; 4.8% meat mixed dishes (e.g., meat stew with taro, yams, potato, and pumpkin—“Sancocho”); and 4.4% beef, excludes ground.

4. Discussion

These analyses were conducted to help understand the major sources of shortfall nutrients of public health concern among Latin American individuals. Overall, the prevalence of inadequate intake was over 50% for most shortfall nutrients, highlighting the importance of efforts to support healthy eating within Latin America. Moreover, our results show major food sources overlap among dietary components. Milk, cheese, fish/seafoods, breads, and fruit juices/drinks were among the top 5 sources for each of the 10 shortfall nutrients examined in the ELANS sample overall and for each of the eight countries.
Although considerable attention has been reported on sugar-sweetened beverages (SSB) and their role in excess weight gain [27,28], some of the items of these broaden beverage category can provide important sources of shortfall nutrients, i.e., vitamin E and C, and magnesium [6]. Thus, guidance on intake inclusion of fruit juices and drinks in this definition is important for the improvement of these shortfall nutrients in the population diet [29] through the development of successful strategies integrating the tripartite: industry, government, and academia. The totality of nutrients provided by foods or beverages have to be considered and balanced with food sources of shortfall nutrients when making dietary recommendations to build a healthy diet [6]. For example, dietary patterns that encourage enriched or fortified food groups may help shift population consumption in Latin America populations toward recommended intake levels for several shortfall nutrients identified by the 2015 concensus on dietary guidelines [30]. However, fortified/enriched foods can present both a shortfall and overconsumed nutrients of public health concern [6,31]. Thus, overconsumption for these food sources can lead to excessive energy intake, and might lead to unhealthy weight gain [5].
While the Latin American sample are not meeting the recommendations for the majority of the shortfall nutrients, many of their top food sources retain important nutrients of public health concern. The ELANS sample are consuming as major sources of home-based mixed-dishes (e.g., preparations including beans, vegetables, and soups), fruits and vegetables, and/or processed items (e.g., fruit drinks, milk, and cheese). There is a dire need to strengthen the design, implementation, and evaluation of strategies to increase access to and promote healthful items in the Latin America countries. For example, updates and revisions of current dietary guidelines for Latin American countries, may be needed. This includes the design and promotion of messages based on day-by-day eating patterns of different groups of individuals. Adopting strategies that focus on tradition and local foods, as well as promoting healthful food option within industrialized items may help improve dietary intake [32]. An example for all Latin American countries could be to promote an increase on servings of plant-based proteins food items, given the variety on the consumption of these through tradition and local food sources. Other dietary guidelines, such as the new Canada Food Guide, includes a focus on plant-based proteins [33]. Increasing the intake of plant-based proteins has been proposed as potential strategy for improving diet quality and reducing risk of cardiometabolic disease [32].
A key strength of these analyses was the use of nationally representative data and the use of two 24 h recalls to estimate the usual dietary intake of the sample. However, some limitations should be noted. First, 24 h dietary recalls have inherent limitations, including errors due to memory, underreporting of energy, and examiner effects [6]. Second, caution should be used in making direct comparisons between food sources rankings in this publication with other published work because of the dependence of rankings on food grouping definitions.

5. Conclusions

Overall, these analyses provide an understanding of major food sources of shortfall nutrients: vitamin A, D, C, and E, dietary folate, calcium, magnesium, potassium, fiber, and iron; in the Latin American population, including categories of foods and beverages that are key contributors to more than one dietary shortfall component. Understanding the nutrient intake and food sources is crucial to informing dietary guidance to policy makers, researchers, practitioners, and, other stakeholders to develop effective public health policies and behavioral change strategies to improve dietary intake. Efforts to continue monitoring the food sources of nutrients by Latin Americans and other HIC and LMIC populations should be an important aspect to increase the current knowledge in this field.

Supplementary Materials

The following are available online at https://www.mdpi.com/article/10.3390/ijerph18094967/s1, Table S1: Shortfall nutrients prevalence of inadequacy for the overall sample and each of the eight Latin American countries. Latin American Study of Nutrition and Health/Estudio Latinoamericano de Nutrición y Salud (ELANS)–2015; Table S2: Food sources of vitamin A RAE (µg/day) intake among Latin American adolescents and adults. The Latin American Study of Nutrition and Health; Table S3: Food sources of vitamin D (mg/day) intake among Latin American adolescents and adults. The Latin American Study of Nutrition and Health; Table S4: Food sources of vitamin E (mg/day) intake among Latin American adolescents and adults. The Latin American Study of Nutrition and Health; Table S5: Food sources of vitamin C (mg/day) intake among Latin American adolescents and adults. The Latin American Study of Nutrition and Health; Table S6: Food sources of dietary folate DFE (mg/day) intake among Latin American adolescents and adults. The Latin American Study of Nutrition and Health; Table S7: Food sources of calcium (mg/day) intake among Latin American adolescents and adults. The Latin American Study of Nutrition and Health; Table S8: Food sources of magnesium (mg/day) intake among Latin American adolescents and adults. The Latin American Study of Nutrition and Health; Table S9: Food sources of potassium (mg/day) intake among Latin American adolescents and adults. The Latin American Study of Nutrition and Health; Table S10: Food sources of fiber (mg/day) intake among Latin American adolescents and adults. The Latin American Study of Nutrition and Health; Table S11: Food sources of iron (mg/day) intake among Latin American adolescents and adults. The Latin American Study of Nutrition and Health.

Author Contributions

Conceptualization, A.C.B.L. and R.M.F.; methodology A.C.B.L. and R.M.F.; formal analysis A.C.B.L., A.V.d.M. and C.H.S.; resources A.R., G.G., L.Y.C.S., M.C.Y.G., M.H.-C., I.K., M.F. and R.G.P.; data curation, A.R., G.G., L.Y.C.S., M.C.Y.G., M.H.-C., I.K. and M.F.; writing—original draft preparation, A.C.B.L.; writing—reviewing and editing, R.M.F., J.H. and G.F.; supervision, R.M.F. and M.F.; project administration, A.R., G.G., G.F., L.Y.C.S., M.C.Y.G., M.H.-C., I.K. and M.F.; and funding acquisition, A.R., G.G., L.Y.C.S., M.C.Y.G., M.H.-C., I.K. and M.F. All authors have read and agreed to the published version of the manuscript.

Funding

The ELANS study was supported by scientific grant from the Coca-Cola Company (Atlanta, GA, USA) and by the Latin American countries ILSI (International Life Science Institute) organizations for data collection. The funders have no role in the study design, data collection, analysis, decision to publish or preparation of this manuscript.

Institutional Review Board Statement

The study was conducted according to the guidelines of the Declaration of Helsinki and approved by the Institutional Review Board of the Western Institutional Review Board (n° 20140605). Local ethics institutional review board from each country also approved the study.

Informed Consent Statement

Informed consent was obtained from all subjects involved in the study.

Data Availability Statement

No new data were created or analyzed in this study. Data sharing is not applicable to this article.

Conflicts of Interest

The authors declare no conflict of interest.

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Table 1. Demographics and lifestyle characteristics of the Latin American population. Latin American Health and Nutrition Study/Estudio Latino Americano de Nutrición y Salud (ELANS).
Table 1. Demographics and lifestyle characteristics of the Latin American population. Latin American Health and Nutrition Study/Estudio Latino Americano de Nutrición y Salud (ELANS).
Characteristicsn (%)
Country
 Argentina 1266 (13.73)
 Brazil2000 (21.70)
 Chile 879 (9.54)
 Colombia 1230 (13.24)
 Costa Rica798 (8.66)
 Ecuador 800 (8.68)
 Peru1113 (12.07)
 Venezuela 1132 (12.28)
Sex
 Female 4809 (52.17)
 Male 4409 (47.83)
Income Status
 High 880 (9.55)
 Medium3542 (38.42)
 Low 4696 (52.03)
Marital Status
 Single 3912 (42.44)
 Married or living with a partner 4393 (47.66)
 Widow 235 (2.55)
 Divorced 678 (7.36)
Race/Ethnicity
 Mixed-Race4240 (48.44)
 Caucasian3216 (36.74)
 African-American 995 (11.37)
 Native 178 (2.03
 Other a124 (1.42)
Weight Status
 Underweight 306 (3.32)
 Normal weight 3420 (37.14)
 Overweight 3167 (34.39)
 Obese 2315 (25.14)
M ± SE
Age35.82 ± 0.15
BMI (kg/m2)26.91 ± 0.01
Total Energy Intake (Kcal/day) 1999.21 ± 5.23
a Other: gypsy, Asian, and other ethnicities. SE: Standard Error.
Table 2. Food sources of shortfall nutrients intake among Latin American adolescents and adults (n = 9218). The Latin American Study of Nutrition and Health.
Table 2. Food sources of shortfall nutrients intake among Latin American adolescents and adults (n = 9218). The Latin American Study of Nutrition and Health.
Main GroupSubgroupCategoriesCons 1Mean ± SE%
Vitamin A (µg/day)
Protein FoodsMeatsLiver and organ meats225230.2 ± 369.512.6
Milk and DairyMilkMilk, whole238286.5 ± 1.25.3
Fats and OilsFats and OilsMargarine1672117.2 ± 2.75.0
VegetablesVegetables, excluding potatoesCarrots371513.3 ± 23.84.9
Beverages100% juiceOther Fruit Juice1013175.1 ± 8.34.2
Vitamin D (mg/day)
Milk and DairyMilkMilk, whole23822.42 ± 0.0326.3
Protein FoodsSeafoodFish5284.78 ± 0.3210.7
Protein FoodsEggsEggs and Omelets15061.36 ± 0.028.9
Protein FoodsMeatsBeef, excludes ground18820.76 ± 0.016.5
Mixed DishesMixed Dishes—M/P/SSeafood Mixed Dishes3115.86 ± 0.616.2
Vitamin E (mg/day)
Beverages Coffee and TeaTea38976.94 ± 0.1544.5
Fats and OilsFats and OilsMargarine16721.36 ± 0.033.8
Mixed Dishes Mixed Dishes—M/P/SMeat Mixed Dishes7813.31 ± 0.143.6
Protein Foods Plant-Based ProteinsBeans, peas, legumes37010.49 ± 0.012.9
Mixed DishesMixed Dishes—Grains Turnovers and other grain-based items5982.28 ± 0.062.3
Vitamin C (mg/day)
Beverages100% JuicesOther Fruit Juice101388.21 ± 2.6117.4
Fruits Fruits Other Fruits and Fruit Salads105662.88 ± 2.1813.2
Beverages100% JuicesCitrus Juice124547.53 ± 2.2211.8
BeveragesSweetened BeveragesFruit Drinks145035.03 ± 1.0610.8
Fruits Fruits Banana142112.32 ± 0.283.7
Folate DFE (mg/day)
GrainsBread, Rolls, Tortillas Yeast Breads3465128.00 ± 1.6314.7
GrainsQuick Breads and Bread ProductsPancakes, waffles, French Toast2134153.81 ± 1.8111.1
GrainsCooked grains Rice468059.82 ± 0.619.3
Protein FoodsPlant-based Protein Foods Beans, peas, legumes370169.87 ± 1.368.7
GrainsCooked GrainsPasta, noodles, cooked grains59482.11 ± 1.368.7
Calcium (mg/day)
Milk and DairyCheeseCheese1932290.07 ± 3.9814.0
Milk and DairyMilkMilk, whole2382223.14 ± 3.0013.2
Mixed DishesMixed Dishes—PizzaPizza372706.77 ± 34.456.5
GrainsBread, rolls, tortillas Yeast Breads346562.84 ± 1.105.3
GrainsQuick breads and bread productsPancakes, Waffles, French Toast213485.90 ± 3.134.5
Magnesium (mg/day)
Protein Foods Plant-based Protein Foods Beans, peas, legumes370137.64 ± 0.559.2
GrainsQuick Breads and Bread ProductsPancakes, waffles, French Toast213443.88 ± 0.506.2
GrainsCooked grainsRice468017.02 ± 0.205.2
GrainsBread, Rolls and TortillasYeast breads346513.22 ± 0.234.5
BeveragesCoffeeCoffee 413514.78 ± 0.294.1
Iron (mg/day)
GrainsBread, Rolls, Tortillas Yeast Breads34652.28 ± 0.029.4
GrainsCooked grainsRice46801.68 ± 0.029.3
Protein Foods Plant-based Protein Foods Beans, Peas, Legumes37012.09 ± 0.039.2
GrainsQuick bread and bread productsPancakes, Waffles, French Toast21343.48 ± 0.048.9
Protein FoodsMeatsBeef, excludes ground18822.09 ± 0.034.7
Potassium (mg/day)
Protein FoodsPlant-based protein foodsBeans, peas, legumes3701320.4 ± 4.019.0
FruitsFruitsBanana1421522.81 ± 11.825.8
Protein FoodsMeatsBeef, excludes grounds1882398.68 ± 5.515.7
Milk and DairyMilkMilk, whole2382262.06 ± 3.544.8
Mixed DishesMixed Dishes—SoupsSoups1459349.18 ± 8.153.1
Fiber (mg/day)
BeveragesCoffee and TeaTea38975.81 ± 0.1319.6
Protein foodsPlant-based protein foods Beans, peas, legumes37014.35 ± 0.0713.9
GrainsQuick breads, and bread productsPancakes, waffles, French Toast21342.95 ± 0.035.5
GrainsBread, rolls, tortillas Yeast breads34651.81 ± 0.025.4
Mixed DishesMixed Dishes—SoupsSoups14594.96 ± 0.155.1
Note: Cons: consumption; DFE: Dietary Folate Equivalent; M/P/S: Meat/Poultry/Seafoods; SE: Standard Error. 1 Cons: number of times food have been consumed by the entire population.
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Barco Leme, A.C.; Fisberg, R.M.; Veroneze de Mello, A.; Sales, C.H.; Ferrari, G.; Haines, J.; Rigotti, A.; Gómez, G.; Kovalskys, I.; Cortés Sanabria, L.Y.; et al. Food Sources of Shortfall Nutrients among Latin Americans: Results from the Latin American Study of Health and Nutrition (ELANS). Int. J. Environ. Res. Public Health 2021, 18, 4967. https://doi.org/10.3390/ijerph18094967

AMA Style

Barco Leme AC, Fisberg RM, Veroneze de Mello A, Sales CH, Ferrari G, Haines J, Rigotti A, Gómez G, Kovalskys I, Cortés Sanabria LY, et al. Food Sources of Shortfall Nutrients among Latin Americans: Results from the Latin American Study of Health and Nutrition (ELANS). International Journal of Environmental Research and Public Health. 2021; 18(9):4967. https://doi.org/10.3390/ijerph18094967

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Barco Leme, Ana Carolina, Regina Mara Fisberg, Aline Veroneze de Mello, Cristiane Hermes Sales, Gerson Ferrari, Jess Haines, Attilo Rigotti, Georgina Gómez, Irina Kovalskys, Lilia Yadira Cortés Sanabria, and et al. 2021. "Food Sources of Shortfall Nutrients among Latin Americans: Results from the Latin American Study of Health and Nutrition (ELANS)" International Journal of Environmental Research and Public Health 18, no. 9: 4967. https://doi.org/10.3390/ijerph18094967

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