Prevalence of soy protein hypersensitivity in korean children sensitized to cow milk protein

2003 ◽  
Vol 111 (2) ◽  
pp. S254
Author(s):  
K. Ahn ◽  
S. Nam ◽  
Y. Han ◽  
S. Lee
2020 ◽  
Vol 4 (1-3) ◽  
pp. 31
Author(s):  
Saptawati Bardosono

The quality of protein and amino acids of soya is being used as soy protein-based formulas in infant feeding to provide nutrition for normal growth and development. There are few indications for their use in place of cow milk-based formula, although it has no advantage over cow milk protein based formula beyond those indications.


2019 ◽  
pp. 39-41
Author(s):  
D. S. Yasakov ◽  
S. G. Makarova ◽  
M. A. Snovskaya

Objective. The objective is to analyze the features of sensitization to food allergens in vegetarian children.Methods: 210 children aged from 3 months to 17 years and 11 months old: vegetarians with at least 6 months vegetarian experience (n = 129) and children receiving a traditional diet (n = 81) were examined. The level of specific immunoglobulin E of blood serum to cow milk protein, soy, beef, pork, chicken, fish (cod), egg white and wheat was determined.Results: The rate of sensitization to food allergen in vegetarian children did not statistically differ from that of a comparison group (18.6 against 17.3 %, p>0.05). The correlation analysis showed a slight association between vegetarian diet and the level of specific immunoglobulin E only for soy protein (r = 0.22, p<0.05).Conclusions: The obtained results speak of higher risk of sensitization to soy in vegetarian children.


Author(s):  
John Puntis

Some mothers are unable, or choose not, to breastfeed; bottle-feeding carries certain risks that can be minimized by following simple rules. Formula must satisfy all the nutritional needs of an infant and recommendations for the composition of infant formula have been adopted in the Codex Alimentarius. The two main types of formula differ in protein composition (whey or casein predominant). Follow-on formula are designed for infants from 6–12 months of age. Soy protein is an alternative to cow milk protein, but because of its high phytoestrogen content, should not be used before 6 months. Unmodified cow’s milk as the main drink before 12 months of age is associated with iron deficiency. ‘Complementary feeding’ embraces all solid and liquid feeds other than breast milk and infant formula. There is considerable international variation in practice with regard to introduction of complementary feeds, but in general this should not be before 17 weeks, and not after 26 weeks.


Dairy ◽  
2021 ◽  
Vol 2 (2) ◽  
pp. 191-201
Author(s):  
Young W. Park ◽  
George F. W. Haenlein

A new type of cow’s milk, called A2 milk, has appeared in the dairy aisles of supermarkets in recent years. Cows’ milk generally contains two major types of beta-casein as A1 and A2 types, although there are 13 genetic variants of β-casein: A1, A2, A3, A4, B, C, D, E, F, H1, H2, I and G. Studies have shown that A1 β-casein may be harmful, and A2 β-casein is a safer choice for human health especially in infant nutrition and health. The A2 cow milk is reportedly easier to digest and better absorb than A1 or other types of milk. The structure of A2 cow’s milk protein is more comparable to human breast milk, as well as milk from goats, sheep and buffalo. Digestion of A1 type milk produces a peptide called β-casomorphin-7 (BCM-7), which is implicated with adverse gastrointestinal effects on milk consumption. In addition, bovine milk contains predominantly αs1-casein and low levels or even absent in αs2-casein, whereby caprine milk has been recommended as an ideal substitute for patients suffering from allergies against cow milk protein or other food sources. Since goat milk contains relatively low levels of αs1-casein or negligible its content, and αs2-casein levels are high in the milk of most dairy goat breeds, it is logical to assume that children with a high milk sensitivity to αs1-casein should tolerate goat milk well. Cow milk protein allergy (CMPA) is considered a common milk digestive and metabolic disorder or allergic disease with various levels of prevalence from 2.5% in children during the first 3 years of life to 12–30% in infants less than 3 months old, and it can go up to even as high as 20% in some countries. CMPA is an IgE-mediated allergy where the body starts to produce IgE antibodies against certain protein (allergens) such as A1 milk and αs1-casein in bovine milk. Studies have shown that ingestion of β-casein A1 milk can cause ischemic heart disease, type-1 diabetes, arteriosclerosis, sudden infant death syndrome, autism, schizophrenia, etc. The knowledge of bovine A2 milk and caprine αs2-casein has been utilized to rescue CMPA patients and other potential disease problems. This knowledge has been genetically applied to milk production in cows or goats or even whole herds of the two species. This practice has happened in California and Ohio, as well as in New Zealand, where this A2 cow milk has been now advanced commercially. In the USA, there have been even promotions of bulls, whose daughters have been tested homozygous for the A2 β-casein protein.


2016 ◽  
Vol 2016 ◽  
pp. 1-7 ◽  
Author(s):  
Setyawan P. Sakti ◽  
Nur Chabibah ◽  
Senja P. Ayu ◽  
Masdiana C. Padaga ◽  
Aulanni’am Aulanni’am

Adulteration of goat milk is usually done using cow’s milk product. Cow milk is used as it is widely available and its price is cheaper compared to goat milk. This paper shows a development of candidate tools for milk adulteration using cow milk. A quartz crystal microbalance immunosensor was developed using commercial crystal resonator and polyclonal antibody specific to cow milk protein. A specific protein at 208 KDa is found only in cow milk and does not exist in goat milk. The existence of this protein can be used as an indicator of cow milk content in a target solution. To detect the PSS 208 kDa protein, antibody specific to the PSS 208 was developed. The purified antibody was immobilized on top of the sensor surface on a polystyrene layer. The fraction of the immobilized antibody on the sensor was found at 1.5% of the given antibody. Using a static reaction cell, the developed immunosensor could detect the specific cow milk protein in buffer solution. The detection limit is 1 ppm. A linear relationship between frequency change and specific protein of cow milk concentration is found from a concentration of 1 ppm to 120 ppm.


2021 ◽  
pp. 1-8
Author(s):  
Adeyeye EI ◽  
◽  
Idowu OT ◽  

This article reports the amino acid composition of the Nigerian local cheese called ‘wara’. ‘Wara’ is made by boiling cow milk with some added coagulant to cuddle the milk protein resulting in coagulated milk protein and whey. ‘Wara’ used to be an excellent source of nutrients such as proteins, fats, minerals and vitamins. Samples were purchased in Ado-Ekiti, Nigeria. Amino acid values were high (g/100g crude protein) in Leu, Asp, Glu, Pro, Phe, Arg with total value of 97.7. The quality parameters of the amino acids were: TEAA (42.6g/100g and 43.6%) whereas TNEAA (55.1g/100g and 56.4%); TArAA (12.8g/100g and 13.1%); TBAA (14.2g/100g and 14.5%); TSAA (3.10g/100g and 3.17%); %Cys in TSAA (51.4); Leu/Ile ratio (1.74); P-PER1 (2.65); P-PER2 (2.48); P-PER3 (2.41); EAAI1 (soybean standard) (1.29) and EAAI2 (egg standard) (99.9); BV (97.2) and Lys/Trp ratio (3.62). The statistical analysis of TEAA/TNEAA at r=0.01 was not significantly different. On the amino acid scores, Met was limiting (0.459) at egg comparison, Lys was limiting at both FAO/WHO [24] and preschool EAA requirements with respective values of 0.966 and 0.97. Estimates of essential amino acid requirements at ages 10-12 years (mg/kg/day) showed the ‘wara’ sample to be better than the standard by 3.72-330% with Lys (3.72%) being least better and Trp (330%) being most. The results showed that ‘wara’ is protein-condensed which can be eaten as raw cheese, flavoured snack, sandwich filling or fried cake.


2014 ◽  
Vol 59 (No. 3) ◽  
pp. 97-106 ◽  
Author(s):  
K. Gellrich ◽  
H.H.D. Meyer ◽  
S. Wiedemann

A variety of proteins contributes greatly to the unique nutritional and functional quality of dairy cow milk. Particularly, milk casein content and composition have substantial influence on the processing capabilities. In the present study, milk of 23 multiparous Holstein-Friesian cows, grouped as high- (3.49 &plusmn; 0.05%; n&nbsp;=&nbsp;11) and low-protein (3.03 &plusmn; 0.05%; n = 12) cows, was sampled approximately weekly during the first 155&nbsp;days of lactation to determine the course of relative milk protein composition (&alpha;-lactalbumin; &beta;-lactoglobulin; &alpha;-, &beta;-, and &kappa;-casein). Furthermore, feed restrictions by 30% of dry matter intake in early and mid-lactation as well as experimental tissue biopsies were conducted to observe their effect on milk protein composition. Milk protein composition was relatively stable and displayed similar concentration patterns throughout the experimental period between both groups. Mean relative concentrations of &alpha;-, &beta;-, &kappa;-casein, &alpha;-lactalbumin, and &beta;-lactoglobulin were 34.2, 31.4, 16.0, 2.1, and 9.7% of total protein, respectively. Feed restrictions did not alter milk protein composition, whereas the season influenced &alpha;- and &beta;-casein as well as &alpha;-lactalbumin. Further, effects were observed in both groups at times of unfamiliar stressful situations caused by taking liver or muscle biopsies. As a result, the relative concentration of &beta;-casein increased. Therefore, acute stress factors may lead to a deviation in milk protein composition and should be avoided. &nbsp;


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