Mineral Profile of Infant-fed Composite Complementary Food Prepared from Miaze (Zea Mays), Soybean (Glycine Max) and Moringa Oleifera Leaves

Filed in Articles by on September 15, 2020

Mineral Profile of Infant-fed Composite Complementary Food Prepared from Miaze (Zea Mays), Soybean (Glycine Max) and Moringa Oleifera Leaves.

ABSTRACT  

This study developed and evaluated infant – feed composite complementary food made from locally available foods which was fed to infants 6-12 months of age. Dried Moringa oleifera leaf was the fortificant. Yellow maize grains were fermented for 48h and oven – dried. Soybean seeds were boiled for 1h, dehulled and oven-dried. Moringa oleifera leaves were shade-dried. All the food materials were milled into fine flours.

The proximate, energy, mineral and β-carotene contents of the flours were determined using standard methods. The flours were used to develop 2 blends in ratios of 60:40 (control) and 60:30:10 (test) maize + soybean and maize + soybean + Moringa oleifera leaves respectively. The analysis of the blends was done using standard techniques at 5% confidence level. The blends provided 10% protein.

The blends were used to prepare gruels whose sensory evaluation was conducted using 30 mothers. The gruels were fed to 2 groups of infants in the Holy Child Motherless Babies Home in Enugu for 12 weeks. Protein (15. 15% vs 11.36.2%) and carbohydrate (47.15% vs 55.73%) of the blends differed. Ash (3.43% vs 3.08%), fat (30.64% vs 27.2%), crude fiber (3.63% vs 2.74%) and energy (1877 KJ vs 1827KJ) of both blends were comparable.

The Iron (8.32mg vs 6.82mg) and zinc contents (4.09mg vs 4.84mg) of the blends were similar. β-carotene (358.15 RE vs 521.28 RE) and calcium (14.6mg vs 829.28mg) of the test blend were higher than that of control blend. The blends had comparable flavor (8.03 vs 7.57) and texture (7.74 vs 7.37). Both blends were accepted well equally (7.97 vs 7.89), however, they differed in colour (8.10 vs 7.10). The body weight of the subjects increased significantly (9.34%) after feeding the test blend. 

 INTRODUCTION  

The causes of malnutrition are many and complex. Inappropriate breastfeeding and complementary feeding practices coupled with high rates of infectious diseases are the major immediate cause of malnutrition during the first two years of life. Reports show that the rate of exclusive breastfeeding for 6 months is still very low in Nigeria- between 15% and 17%. Children who are not breastfed have repeated infections, experience poor growth and are almost six times more likely to die by the age of one month than children who receive at least some breast milk.

From six months onwards, when breast milk alone is no longer sufficient to meet all nutritional requirements, infants enter a particularly vulnerable period of complementary feeding. They make a gradual transition to eating family foods. The incidence of malnutrition rises sharply between this age and 18 months in most countries (UNICEF, 1998; Dewey, 2003; WHO, 2003). The deficits acquired at this age are difficult to compensate for later in childhood.

Infants therefore, need nutritionally adequate energy-dense complementary foods in addition to breast milk (NFCNS, 2003; WHO, 2003). Unfortunately, complementary feeding begins too early or too late, and foods are often nutritionally inadequate and unsafe (WHO, 2002). This results to protein-energy malnutrition (PEM) and micronutrient deficiency (hidden hunger).

NFCNS reported very high levels of iron deficiency anemia among infants. Poor absorption of iron, parasitic infestation and disease are equally contributory factors. Often, the traditionally complementary foods consist mainly of porridges made from un-supplemented cereals and starchy food such as sorghum, maize and millet (WHO, 1998). The foods are mostly inadequate in energy, protein and micronutrients (ACC/SCN, 2000; Jarkata, 2005). 

REFERENCES

A.A.C.C. (1992). Journal of American Association of Cereal chemistry approval methods
3, 222.

ACC/SCN (United Nations Administrative Committee on coordination- subcommittee on
Nutrition) (2000). Fourth report on the World Nutrition Situation. ACC/SCN in
collaboration with the International Food Policy Research Institute, Geneva,
Switzerland.

Achinewu, S.C., & Isichei, M.O. (1990). The nutritional evaluation of fermented fluted
pumpkin seeds (Telferia occidentalis). Discovery and innovation, 2, 62-65.

Akinyele, I.O. (2002). Calcium contents of Nigerian foods. Nutritional rickets in Nigeria
Children: The way forward. Nestle Nutrition pp 63-65.

Anonymous (1991). Anthropometry of US Military personnel

A.O.A.C.(1995). Association of Official Analytical Chemists. Official methods of
analysis 15th ed. Washington DC, U.S.A pp 40-49.

A.O.A.C.(2005). Official Methods of Analysis, Association of official Analytical Chemistry,
16th ed. Washington DC, U.S.A. p.19

Asindi, A.A., Ibia, E.O., & Udo, J.J. (1990). Mortality among Nigerian children. Tropical
medical Hygiene, 94, 152-155 copyright 2004 from
http://www.bioline.org.br/requestam 04030

Asma, M.A. Babikar, E., Fadil, E.L., & Abdullahi, H.T.. (2006). Development of weaning
food from sorghum supplemented with legumes and oil seeds. Food and
Nutrition Bulletin, 27,1.

Bhutta, Z.A., Bird, S.M., & Black, R.E.(2000). Therapeutic effects of oral zinc in acute and
persistent diarrhea in children in developing countries: pooled analysis of randomized
controlled trails. American Journal of Clinical Nutrition,72, 1516- 1522.

CSN Team.

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