QUALITY OF SOME KIDS MEALS AND ITS ADEQUACY FOR THEIR NUTRIENTS' REQUIREMENTS

المؤلفون

1 Department of Food Science, Home Economics Division Faculty of Agriculture, Cairo Univ.

2 Department of Nutrition & Food Science, Faculty of Home Economics, Menufiya Univ.

المستخلص

Abstract
The availability of foods high in fat and energy dense through fast foods (FF) or taking away restaurants was associated with the poor quality diet. The main aim of the present investigation was directed to assess the proximate composition of FF meals and its nutritional contribution to dietary quality of children as one of the most vulnerable group of population. Two brands of worldwide chain happy meals (beef and chicken burgers were evaluated for the proximate composition, i.e. moisture, protein, total lipids, ash and fiber. Carbohydrates & energy values were calculated. Contribution of these meals was compared with children's daily recommendations.
Chemical composition of happy meals showed that, beef burger from second chain recorded the lowest percent of moisture (36.70%) and protein (15.70%). However, the other three meals had close percentages (41.40 - 42.23%) from moisture, chicken burger from second chain scored the highest percent from protein (19.12%). Although, the percent of fiber (5.63-7.00 %) revealed poor content, all happy meals were considered highly energy dense (565.88-588.36 K.cal).They also had very high percent from fat (40.32-43.76%). Neglected difference was observed between meals from ash contents (1.32-1.85%).
Regarding nutrients adequacy, the percentage of energy was covered by the four meals ranging between 30 - more than 50% of needs of children from 2 - 11 years old. Chicken burger from second chain had the lowest values ​​of energy requirements due to its weight compared with other meals. Happy meals contribution exceeded the requirements of children at 1-3 years old (129.9- 146.2 % of protein AMDR).These percentages were 49.7 - 55.9 % at 9-13 years old &88.9 - 100% for children from 4 - 9 years. With regard to fat contribution from happy meals all children (in the three age categories 1-3, 4-9 and 9-13 years) could be got more than their needs . Children got approximately one fifth to one third of their needs of carbohydrates when they consumed one happy meal. While, they have one tenth to one quarter of their needs from fiber from this meal.

Introduction

Eating habits are shaped early in life. Healthy habits formed during childhood and carried into adulthood decrease the future risk for chronic disease (Mikkelsen and Chehim 2007).

The busy and hectic lifestyle has opened the way for fast food industry in many countries around the world. Fast foods, ready to eat, firstly were introduced with hotdog and hamburger food stands. Nowadays, it became a multibillion dollar industry that has widespread influence on what and how people eat. A strong criticism of fast food industry was extensively reported by Schlosser (2002).

The widespread of fast foods restaurants and the exponential growth of that industry have been associated with increased obesity (Periera et al., 2005  and Niemeir et al, 2006, Mohr et al., 2007 and Ebbeling et al., 2007 and Connor Gober et al., 2007), heart disease, type 2 diabetes, high blood pressure and high cholesterol (American heart Association 2010).

Fast Food meals have high energy & saturated fat dense and low micronutrient content (Blair et al, 2005; Schimidt et al., 2005; Harnack and French, 2005and Astrup, 2005). Its consumption was associated with other poor food choices such as low vegetable and milk intake (Boutelle et al, 2007).

Children are entering the consumer marketplace by increasingly younger ages. They are the target of millions of dollars worth of food advertising. This increasing focus on children as consumers may be affecting the quality of their diets. The child food market notably includes frozen dinners aimed at 3- 10 year olds and other child-specific meals (Mikkelsen and Chehim 2007).

The present study was conducted to determine proximate chemical composition of happy meals available in Egyptian markets (Worldwide chains of FF restaurants) and evaluate its nutritional contribution to children's requirements. This study will provide information that satisfies the consumer needs to ensure quality of such foods.

MATERIALS & METHODS

Sampling:

A total of four types of happy meal  samples (40 for each) were brought from two local wholesale markets of worldwide fast food chains located (1 and 2) at Cairo City, Cairo Governorate. No condiments (Ketchup or mayonnaise, mustard, pepper sauce or topping were requested). Two meals were chicken burgers and the others were beef burgers [(Chicken Happy Meal 1, 2(CHM1& CHM2 ) and Meat Happy Meal 1,2 (MHM1 & MHM2)]. All meals were served with French fries.

On purchase foods were wrapped in greaseless paper and packed in carton boxes. Samples were packed in polyethylene bags and put into an ice box and transported to Faculty of Agriculture laboratory, CairoUniversity. Meals code, description, weight and its source were illustrated in Table (1).

Table 1: Meals code, description, weight and its source.

Meal code

Meal description

Meal weight

(g)

Fast food restaurant chain

MHM1

Small beef burger sandwich and French fries

180

1

CHM1

Small chicken burger sandwich and French fries

180

1

MHM2

Small burger sandwich and French fries

170

2

CHM2

Small beef burger sandwich and French fries

154

2

 


Chemical analysis:

Moisture, Protein, fat, fiber and ash were determined according to A. O. A. C. (2005). Total carbohydrates content including fiber was calculated according to FAO (1982) by difference as follows:

% carbohydrates = 100 – (% moisture + % protein + % ash + % fiber).

Estimated energy values were calculated by multiplying amount of protein and carbohydrates by 4.0 and fat by 9.0.

Cholesterol Content

The amount of cholesterol was determined by spectrophotometric method at 490 nm as reported by Park, 1999.

Nutrient adequacy:

The percentages of RDA from carbohydrates, fat, protein & fiber were computed for children aging (1-3, 4-8 and 9-13) years of both sexes by the following equation:

Amount of nutrient in whole happy meal / nutrient requirement *100

The same equation was used to calculate the percentage of energy of children aging 3-11 years for males &females.

Fat and protein were computed as Acceptable Macronutrient Distribution Range (AMDR).

Fiber was computed as AI (the mean intake). While, there is no recommended daily allowance, or RDA, for cholesterol, the federal government suggests that adults limit their intake to less than 300 mg a day, according to Dietary Guidelines for Americans 2005.

RESULTS & DISCUSSION

Chemical composition of happy meals is shown in Tables (2) and (3). It could be noticed that the moisture contents of happy meals ranged from 36.70 to 42.23%. The lowest moisture content was seen for MHM2 sample (beef burger meal), while the highest was found for MHM1. Slight variations were observed among the percent of moisture contents in the other samples.

The chicken happy meal 2 was highest percentage of protein ( 19%). The values of fat were very closed. While, percentages of carbohydrates and fiber ranged from 30.1-35.04 , 5.63-7.(Table 2).

Table (2): Chemical composition of happy meals (on dry weight basis)

Sample code

Protein

%

Fat

%

CHO

%

Fiber

%

Ash

%

Estimated energy (K.cal)

Cholesterol (µg/g)

MHM1

18.28

43.76

30.35

6.21

1.40

588.36

1.5

CHM1

16.90

42.15

34.00

5.63

1.32

582.95

2.9

MHM2

15.70

40.32

35.04

7.00

1.85

565.88

1.4

CHM2

19.12

43.13

30.10

6.25

1.40

585.05

1.7

With respect to chemical composition on wet weight in table 3, about one quarter of samples was fat, 10% of them was protein. While, carbohydrate percentages were ranged from 17.53 - 22.22.

Table (3): Chemical composition of happy meals (on wet weight basis).

Sample code

Moisture

(g)

Protein

(g)

Fat

(g)

CHO

(g)

Fiber

(g)

Ash

(g)

Cholesterol

(µg/g)

MHM1

42.23

10.56

25.28

17.53

3.59

0.81

0.86

CHM1

42.08

9.79

24.41

19.70

3.26

0.76

1.67

MHM2

36.70

9.94

25.52

22.22

4.43

1.10

0.88

CHM2

41.40

11.20

25.27

17,67

3.66

0.83

0.99

Table 4 shows amounts of nutrients in whole happy meals. The highest content of protein was MHM from the first chain and the lowest content of it was MHM from the second chain, although they were meat happy meal. Despite the relatively high percent of protein content of happy meals, there is a broader impact that they might have on overall diet. Beef and chicken burger protein have been replaced by binders and fillers to cut cost (Babji et al., 2000).

Slight differences were noticed among the percentages of fiber, ash contents of the investigated FF meals.

There is a convergence in the amount of fat in meals for each chain according to type. The amount of carbohydrates in happy meals varies from 46.35 - 61.2 gm. The last meal (CHM2) had the lowest values of almost nutrients especial fiber and energy, that is due to low weight. 

All happy meals were very high in fat and calories. The estimated energy of them meals showed high values ranging from 585.05 to 565.88 calories provided from 100 g of happy meal. This could be related to the existence of French fries beside high fat contents of the used ingredients as well as the preparation techniques.

In this respect, O'Donnell et. al.,( 2003) found that subjects who reported eating fast food had significantly (P<0.001) higher intake of energy, fat , saturated fat, sodium and lower intake vitamins A & C than those who did not reporting eating fast food.

The high fat and calories contents of FF meals under study assured those previously noted by (UW Health, 2003 and Hurley & Liebman, 2005).

While there is no recommended daily allowance, or RDA, for cholesterol, the federal government suggests that adults limit their intake to less than 300mg a day, according to Dietary Guidelines for Americans 2005.

Table (4): Nutrient contents of happy meals

Sample

code

Samples

weights

Protein

(g)

Fat

(g)

CHO

(g)

Fiber

(g)

Energy

(K.cal) 

Cholesterol

(mg)

MHM1

180

19.00

78.77

54.63

11.18

611.78

1.55

CHM1

180

17.62

75.87

61.20

10.13

607.77

3.02

MHM2

170

16.89

68.54

59.57

11.90

609.14

1.51

CHM2

154

17.24

66.42

46.35

9.63

527.95

1.53

From figure 1 to figure 7 show the percentages of RDA of calories content for males and females from 2- 11 years old. It could be noticed that:

  • The percentage was of energy covered by the four meals ranging between 30 - more than 50% of needs of children from 2 - 11 years old.
  • In younger ages, the daily needs of energy were lower. Therefore, the meals gave higher proportion of  energy needs. 
  • Due to  increase energy needs of males from females, the proportion of meals energy which gives for males less than females.
  • Last meal (CHM2) gives less values ​​of the energy requirements due to low weight of it for the other meals.

From above the happy meal gave children huge amount of energy. That's meaning high energy intake at one meal was followed by low energy intake at the next meal, or vice versa (Birch et. al., 1991). children who regularly eat fast food consume more calories overall and eat fewer fruits and vegetables than children who do not go to fast food restaurants as often (Active Living Research, 2005).

 

         

 

 

 

 

 

The percentage of protein contents of happy meals covering children's needs   at different ages (2 - 11 years old) were assessed and illustrated in table 5. Happy meals contribution exceeded the requirements of children at 1-3 years old (129.9- 146.2 % of protein AMDR).These percentages were 49.7 - 55.9 % of protein AMDR at 9-13 years old. with respect to children from 4 - 9 years might get 88.9 - 100% of their needs of protein if they ate one happy meal of under study. The primary organ tasked with filtering excess protein from the body are the kidneys. As protein is broken down in the body any protein that is not needed is broken down into toxic products such as ammonia and urea. These toxic byproducts of excessive protein intake can cause inflammation in the kidneys, which may manifest as back pain. Also excess protein intake can also take calcium away from the bones. Over time, this loss of calcium can leave the bones weakened and encourage the development of osteoporosis (Fass,2010).

 Concerning fat contribution of happy meals to fat requirements, fat contents were compared to children AMDR form 1- 13years old (Table 5). All children ( in the three categories 1-3, 4-9 and 9-13 years ) could be got more than their needs. For child aged between 1-3 years it may get 111.2 - 130% of fat needs. While, any child aged from 4 - 13 years ate one happy meal, get 129.7 - 151.7% of fat needs.

In this respect,  Schroeter (2004) found that the readily available high fat foods ,e.g. fast food meal, was less healthy than food at home, since it tends to contain more total fat and saturated fat, less calcium, fiber, and iron, and fewer servings of fruits and vegetables.

With regard to carbohydrates and fiber, children get approximately one fifth to one third of their needs of carbohydrates when they consumed one happy meal. While fiber, children get one tenth to one quarter of their needs of fiber when they consumed happy meal.

In this subject, UCLA university, 2005 reported that fiber increases satiety (the feeling of fullness) by adding bulk to foods without additional calories. This may reduce the risk of obesity and the severity of diabetes. Diets rich in cereal fiber reduce the risk of stroke (Ascherio et al, 1998).

 

Table (5): Adequacy of nutrients as percentages of requirements for children in different ages.

                Age 

                                group

%RDA

4-9 years

9-13 years

CHO1

 

 

% of RDA for MHM1

24.3

24.3

% of RDA for CHM1

27.3

27.3

% of RDA for MHM2

29.1

29.1

% of RDA for CHM2

20.9

20.9

Fat 2 a

 

 

% of AMDR for MHM1

151.7

151.7

% of AMDR for CHM1

146.4

146.4

% of AMDR for MHM2

144.6

144.6

% of AMDR for CHM2

129.7

129.7

Protein

 

 

% of AMDR for MHM1

100.0

55.9

% of AMDR for CHM1

92.7

51.8

% of AMDR for MHM2

88.9

49.7

% of AMDR for CHM2

90.7

50.7

 

 

 

Fiber  3*

 

Males/Females

% of AI for MHM1

14.4

11.6/13.8

% of AI for CHM1

13.0

10.5/12.5

% of AI for MHM2

17.7

14.3/17.0

% of AI for CHM2

14.6

11.8/14.1

1 all values of  carbohydrates RDA in all age categories are 130 gm.

2 values of  fat AMDR in (1-3) and (4-13) age categories are 35& 30 gm respectively.

3 values of fiber AI in 9-13 for males and females are different 31 and 26 gm respectively.

 It represents Recommended Dietary Allowances (RDAs) in bold type, Adequate Intakes (AIs) in ordinary type followed by an asterisk (*). RDAs and AIs may both be used as goals for individual intake. RDAs are set to meet the needs of almost all (97 to 98 percent) individuals in a group. For healthy breastfed infants, the AI is the mean intake. The AI for other life stage and gender groups is believed to cover the needs of all individuals in the group, but lack of data prevent being able to specify with confidence the percentage of individuals covered by this intake.

AcceptableMacronutrientDistributionRange (AMDR)a is the range of intake for a particular energy source that is associated with reduced risk of chronic disease while providing intakes of essential nutrients. If an individual consumed in excess of the AMDR, there is a potential of increasing the risk of chronic diseases and insufficient intakes of essential nutrients.

SOURCE: Dietary Reference Intakes for Energy, Carbohydrate. Fiber, Fat, Fatty Acids, Cholesterol, Protein, and Amino Acids (2002/2005). This report may be accessed via www.nap.edu

 

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