Plant-Based Milk Alternatives in Child Nutrition
Abstract
:1. Introduction
2. Main Nutritional Characteristics of Plant-Based Milk Alternatives Compared to Cow’s Milk
2.1. Plant-Based Formulas
- The allowed source of protein is cow’s milk, goat’s milk, isolated soy protein (ISP), and protein hydrolysates from “any suitable protein source and by different enzymatic or chemical means provided that the compositional criteria laid down by the Directive are met”. The minimum and maximum protein contents for IF and FOF in cow’s- and goat’s-derived formulas are 1.8 g/100 Kcal and 2.5 g/100 Kcal, respectively; for ISP 2.25 to 2.8 g/100 Kcal, respectively; and for protein hydrolyzates no minimum is set but the maximum is 2.8 g/100 Kcal. The Authors suggest a reference amino acidic pattern too [39]. As shown in Table 1, cow’s-milk protein content is 3.3 g/100 mL [40].
- Concerning the fat content, the EFSA panel proposes a fat content for IF and FOF that ranges between 40 and 55% of total energy, which is 4.4–6 g/100 Kcal of fat. The specific fat composition is detailed in particular for polyunsaturated fatty-acid requirements [39]. As a comparison, full-fat cow’s-milk fat content is around 3.2–3.7 g/100 mL [40]. In recent years, the European Union has made mandatory supplementation with docosahexaenoic acid for all formulas used in the first year of life [26].
- The carbohydrate content is calculated based on the residual energy after considering protein and fat composition. It can range between 9 g/100 Kcal and 14 g/100 Kcal for all kinds of formulas. Specific types of carbohydrates are detailed, including non-digestible carbohydrates [39]. As shown in Table 1, cow’s-milk carbohydrate content is 4.6 g/100 mL [40].
- The EFSA panel sets micronutrient composition for minerals and vitamins and discusses other ingredients such as choline, inositol, taurine, and probiotics, whose use can be planned in formulas. It is worth mentioning that higher amounts of iron are suggests for FOF compared to IF (minimum 0.6 mg/100 Kcal vs. minimum 0.3 mg/100 Kcal, respectively) when of animal origin and in protein hydrolyzates. ISP formulas should have a minimum iron content of 0.45 mg/100 Kcal for IF and 0.90 mg/100 Kcal for FOF [39]. In cow’s milk, iron is virtually absent [40].
- Finally, the EFSA panel does not consider it necessary to propose a specific composition of formulas used after 1 year of age, as “formula consumed during the first year of age can continue to be used by young children” [39]. The ESPGHAN position paper about young-child formulas (YCF) [41] agrees that follow-on formulas can be used after 1 year of age but calls for a “regulation of YCF to avoid inappropriate composition”.
2.2. Plant-Based Drinks
- Plant-based drinks vary in energy content depending on the source of the product and the possible presence of added sugar. Usually, almond-based drinks are the lowest in calories but can vary widely (e.g., 26–46 Kcal/100 mL [11], 25–74 Kcal/100 mL [42]), whereas rice-based drinks are the richest ones (e.g., 54–61 Kcal/100 mL [11], 47–68 Kcal/100 mL [42]). Soy-based drinks have ~45 Kcal/100 mL [11,42]. Full-fat cow’s milk has ~60 Kcal/100 mL [40].
- Plant-based drinks vary in protein amount, too, as shown in Table 2. The most similar to cow’s-milk content (i.e., 3.3 g/100 mL [40]) are soy-based drinks (3.3 g/100 mL [11], 3.1 g/100 mL [42]), whereas rice-based drinks have the lowest protein content (~0.2 g/100 mL [11] and 0.3 g/100 mL [42]). Protein quality is different as well. Even though we have not found in the literature specific data about the quality of protein in plant-based drinks, it is known that protein of animal origin is of better quality when compared to plant protein due to the different aminoacidic profile and the lower digestibility [43]. However, it is possible to improve the quality of the diet through the careful planning of a single meal and the overall diet [44,45].
- Regarding the fat content, rice-based drinks usually have the lowest values of ~1 g/100 mL [11,42]. Soy-based drinks have ~2 g/100 mL [11,42]. Full-fat cow’s milk has ~3.2–3.7 g/100 mL [40], whereas partially skimmed and fat-free cow’s milk have lower fat content. There are differences in the fatty-acid composition: a prevalence of saturated fatty acids is typical of cow’s milk (around 60%) and coconut-based drinks (around 90%) [10,36], whereas a prevalence of polyunsaturated fatty acids is reported for soy-based drinks [36]. Moreover, during the production, different oils (such as sunflower, rice) can be added to improve the organoleptic characteristics, making the lipid profile of the final product different from what could be inferred considering only the primary source.
- Rice-derived drinks usually are the richest in carbohydrates, with values slightly over 10 g/100 mL (12 g/100 mL [11], 11.5 g/100 mL [42], followed by oat-based drinks (7 to 8 g/100 mL) [11,42]. Soy-based drinks usually have a carbohydrate content ranging from 3 g/100 mL [11] to 4 g/100 mL [42]. Cow’s milk sits around 4.6 g/100 mL [40]. The main sugar in cow’s milk is lactose, whereas plant-based drinks are naturally devoid of lactose. However, sugars can be added to plant-based drinks, so the nutritional composition can vary widely according to sources and manufacturing.
- Whereas calcium is naturally present in cow’s milk (on average, 120 mg/100 mL), it can be added to plant-based drinks. Moreover, calcium bioavailability may differ depending on the type of fortification used (tricalcium phosphate, calcium carbonate, red alga Lithotamnium calcareum), even though the 2016 Academy of Nutrition and Dietetics position paper on vegetarian diets reports that calcium absorption “from most fortified plant milks is similar to that from cow’s milk, at approximately 30%” [46].
- Vitamin D, vitamin B2, and vitamin B12 can also be added to plant-based drinks, depending on the choice of the manufacturer. In the case of vitamin D, vitamin D3 can be of animal origin (from sheep lanolin), but in the last few years botanical sources of vitamin D3, Cladonia raingiferina (reindeer lichen), have become available [47].
3. The Role of Plant-Based Milk Alternatives in the Diets of Children 0–12 Months
3.1. Allergy to Cow’s-Milk Protein
3.2. Galactosemia and Lactose Intolerance
3.3. Preterm Infants
3.4. Choosing Plant-Based Milk Alternatives for Family Preferences
4. The Role of Plant-Based Milk Alternatives in the Diet of Children over 12 Months of Age
4.1. Allergy to Cow’s-Milk Proteins
4.2. Lactose Intolerance
4.3. Choosing Plant-Based Milk Alternatives for Family Preferences
Adequacy of Plant-Based Drinks Compared to Cow’s Milk
5. Advice Common to All Choices
5.1. Age
5.2. Quantity
6. Advice in Specific Situations
6.1. Overweight, Obesity, Dyslipidemia
6.2. Diabetes Mellitus
6.3. Poor Weight and Stature Growth
6.4. Allergy to Cow’s-Milk Proteins
6.5. Lactose Intolerance
6.6. Lacto-Ovo-Vegetarian and Vegan Diet or Family Preference for Plant-Based Milk Alternatives
- Perhaps with the exception of soy-based products, it may be advisable, especially in the second year of life, that a single source be not the only plant-based drink used to replace cow’s milk. It is suggested to offer plant-based drinks from different sources, alternating them during the week(s). This, among other factors, could add variety to the diet and encourage the acceptance of different foods in younger children.
- Due to the saturated-fat content of coconut-based drinks, these products are generally not recommended in children’s diets, except for occasional use.
- If a family chooses plant-based drinks from less common sources (flax, hemp, drinks with multiple components), it is essential to consider the nutritional information of the single product, always in the context of the individual’s overall diet.
6.6.1. In the Case of Using Plant-Based Drinks Derived from Soy
- It is suggested to choose drinks enriched with calcium (and possibly other minerals and vitamins) and free of added sugars.
- According to the CREA indications [74], for the 12–24-month age group, 150 mL of whole cow’s milk provides 90 Kcal, a value in line with the 80 Kcal per 200 mL of soy-based drink. One hundred fifty mL of whole cow’s milk provides 4.8 g of fats, a value slightly higher than that provided by 200 mL of soy-based drink (about 4 g) [40]. In this regard, beneath considering a possible additional source of fats in the meal, it should also be pointed out that the AAP allows the use of “low-fat” cow’s milk starting from the second year of life not only in a child with excess weight but also in a regularly growing child [70]. As for the protein intake, 200 mL of soy-based drink provides 5.6–7 g of proteins versus 5 g of proteins from 150 mL of cow’s milk [40]: This difference should not be a problem given the lower digestibility of plant protein.
- After the first 2 years of life, the official recommendation is that of switching from whole cow’s milk to partially or totally skimmed milk, with 200 mL per day [74]. About 100 Kcal are derived from 200 mL of 2% fat cow’s milk and 80 Kcal from 200 mL of soy-milk. We can consider the contributions of fat and protein to be roughly similar to that of cow’s milk: 200 mL of soy milk has about 4 g of fats, the same value as 200 mL of cow’s milk with 2% fat; regarding proteins, the intake from 200 mL of soy-based drink is 5.6–7 g, similar to 6.6–6.8 g per 200 mL of cow’s milk [40].
6.6.2. In the Case of Using Plant-Based Drinks Derived from Grains
- Limit the consumption of rice-based drinks in the first years of life (more or less for the first five years) due to the possible arsenic content.
- It is suggested to choose grain-based drinks enriched with calcium (and possibly other minerals and vitamins) and free of added sugars.
- Due to the carbohydrate content, sugars in particular, it may be advisable not to use rice-based drinks, and limit oat-based drinks, in a breakfast already rich in simple sugars (e.g., in a breakfast that includes bread and jam, biscuits, or cake prepared with added sugar). On the other hand, if we consider an older child or an adolescent who may exercise in the morning, grain-based drinks could be a choice to be considered.
- As for the 12–24-month range, 150 mL of whole cow’s milk provide 90 Kcal, 5 g of proteins, and 4.8 g of fats. Considering 200 mL of a grain-based drink, the contributions are similar in terms of calories (about 100 Kcal from 200 mL of rice- or oat-based drink) but different for proteins and lipids: For rice-based drink the same amount provides 0.6 g of proteins and 2 g of fats, and for oat-based drink 1.6 g of proteins and 5.4 of fats [40]. Therefore, it would be useful to provide another source of protein at breakfast if one of the above grain-based drinks is consumed, and another source of lipids in the case of rice-based drink.
- As for children 2 years of age and older, 200 mL of 2% fat cow’s milk provide 100 Kcal, 6.6–6.8 g of proteins, and 4 g of fats. As described above, the same amount of rice-based drink provides 100 Kcal, 0.6 g of proteins, and 2 g of fats; for 200 mL of oat-based drink the values are 100 Kcal, 1.6 g of proteins, and 5.4 g of fats [40]. Although the intakes of calories and lipids are similar, it would be useful to provide another source of protein in the case of grain-derived drinks.
6.6.3. In the Case of Using Plant-Based Drinks Derived from Almonds
- It is suggested to choose almond-based drinks enriched with calcium (and possibly other minerals and vitamins) and free of added sugars.
- Compared to the values of 150 mL of whole cow’s milk (90 Kcal, 5 g of proteins, and 4.8 g of fats), 200 mL of almond-based drink provide 30–40 Kcal, 1.2–1.4 g of proteins, and 2.4–3.2 g of fats [40]. It would therefore be advisable to include another source of protein and fat in the meal.
- Compared to 200 mL of semi-skimmed milk, the intake of 200 mL of almond-based drink remains lower in calories (100 Kcal vs. 30–40 Kcal, respectively) and proteins (6.6–6.8 g vs. 1.2–1.4 g) but similar in terms of fats (4 g vs. 2.4–3.2 g) [40]. Therefore, it would be useful to include another source of protein in the meal.
7. Limitations
8. Conclusions
Author Contributions
Funding
Data Availability Statement
Acknowledgments
Conflicts of Interest
References
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Energy (Kcal/100 mL) | Protein (g/100 Kcal) | Lipids (g/100 Kcal) | Carbohydrates (g/100 Kcal) | |
---|---|---|---|---|
Animal-milk formula | 60–70 | 1.8–2.5 | 4.4–6 | 9–14 |
ISP formula | 60–70 | 2.25–2.8 | 4.4–6 | 9–14 |
HP formula | 60–70 | max. 2.8 | 4.4–6 | 9–14 |
Full-fat cow’s milk | 60 | 3.3 | 3.3 | 4.6 |
Energy (Kcal/100 mL) | Protein (g/100 mL) | Lipids (g/100 mL) | Carbohydrates (g/100 mL) | |||||
---|---|---|---|---|---|---|---|---|
Soy | 44 * | 46.7 § | 3.3 * | 3.1 § | 2.0 * | 1.8 § | 3.0 * | 4.3 § |
Rice | 57 * | 56.8 § | 0.2 * | 0.3 § | 1.0 * | 0.9 § | 12.0 * | 11.5 § |
Almond | 38 * | 40.2 § | 0.8 * | 0.8 § | 2.3 * | 2.0 § | 3.0 * | 4.4 § |
Oat | 47 * | 45.3 § | 0.6 * | 0.9 § | 1.2 * | 1.1 § | 7.9 * | 7.5 § |
Full-fat cow’s milk | 60 | 3.3 | 3.3 | 4.6 |
Situation | <6 Months | ≥6 Months |
---|---|---|
Non-severe CMPA | EHF Rice | EHF Rice Soy * |
Severe CMPA, such as:
| AAF | AAF |
CMPA, in the presence of symptoms not resolved by EHF | AAF Rice | AAF Rice Soy * |
CMPA, in the presence of problems with EHFs | AAF Rice | AAF Rice Soy * |
CMPA, in the presence of problems with AAFs | Rice | Rice Soy * |
Situation | Choice |
---|---|
Obesity Overweight Dyslipidemia | - Soy - Almond - Oat - Spelt - Limit rice - Limit cow’s milk, prefer semi-skimmed milk - Formulas: 12–36-months |
Types 1 and 2 diabetes mellitus | - Soy - Oat - Limit rice |
Poor weight and height growth | - Cow’s milks - Soy - Rice * |
CMPA | - Milk formulated for CMPA - Plant-based drinks * |
Lactose intolerance | - Lactose-free cow’s milk - Plant-based drinks * |
Family preference | - Plant-based drinks * |
Age | Cow | Soy | Rice | Oat | Almond | Other |
---|---|---|---|---|---|---|
12–24 months | 150 mL Whole Suitable as such | 200 mL Suitable as such * | 200 mL Provide protein and fat in the meal | 200 mL Provide protein in the meal | 200 mL Provide protein and fat in the meal | Evaluate on a case-by-case basis |
>24 months | 200 mL Partially or totally skimmed Suitable as such | 200 mL Suitable as such | 200 mL Provide protein in the meal | 200 mL Provide protein in the meal | 200 mL Provide protein in the meal | Evaluate on a case-by-case basis |
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Brusati, M.; Baroni, L.; Rizzo, G.; Giampieri, F.; Battino, M. Plant-Based Milk Alternatives in Child Nutrition. Foods 2023, 12, 1544. https://doi.org/10.3390/foods12071544
Brusati M, Baroni L, Rizzo G, Giampieri F, Battino M. Plant-Based Milk Alternatives in Child Nutrition. Foods. 2023; 12(7):1544. https://doi.org/10.3390/foods12071544
Chicago/Turabian StyleBrusati, Marco, Luciana Baroni, Gianluca Rizzo, Francesca Giampieri, and Maurizio Battino. 2023. "Plant-Based Milk Alternatives in Child Nutrition" Foods 12, no. 7: 1544. https://doi.org/10.3390/foods12071544
APA StyleBrusati, M., Baroni, L., Rizzo, G., Giampieri, F., & Battino, M. (2023). Plant-Based Milk Alternatives in Child Nutrition. Foods, 12(7), 1544. https://doi.org/10.3390/foods12071544