Pediatric Nutrition Practice Questions

Q: An 8-month-old child was found to have features of vitamin A deficiency. What is the dose of oral vitamin A required?

1,00,000 IU. ***1,00,000 IU*** - For children aged **6-11 months** with clinical vitamin A deficiency, the recommended dose of oral vitamin A is **1,00,000 IU** (100,000 IU). - An 8-month-old child falls in this age category and requires this specific dose. - This dose is given as part of a **three-dose regimen**: on day 1 (immediately), day 2, and after 2-4 weeks as per **WHO guidelines**. *50,000 IU* - This dose is recommended for **infants less than 6 months** of age with vitamin A deficiency. - Using this dose for an 8-month-old would be **underdosing**, providing inadequate treatment for the deficiency. *75,000 IU* - This is **not a standard dose** for vitamin A supplementation in any age group for deficiency treatment. - Standard WHO guidelines specify 50,000 IU for infants <6 months, 100,000 IU for 6-11 months, and 200,000 IU for children 12-59 months. *2,00,000 IU* - This higher dose is used for children aged **12-59 months** (1-5 years) with vitamin A deficiency. - Administering 200,000 IU to an 8-month-old would be an **overdose**, potentially leading to **acute vitamin A toxicity** with symptoms like bulging fontanelle, vomiting, and irritability.

Q: Within how many hours should breastfeeding be initiated in a perfectly healthy child with no anatomical problems?

A. 1 hour. ***A. 1 hour*** - The World Health Organization (WHO) and UNICEF recommend initiating **breastfeeding within the first hour of birth** for healthy newborns. - Early initiation helps establish **successful breastfeeding**, promotes **maternal-infant bonding**, and facilitates the transfer of **colostrum**, which is rich in antibodies. *B. 4 hrs* - While better than much later initiation, waiting **4 hours** still misses the critical window of the first hour when the infant is often most alert and ready to feed. - This delay can reduce the likelihood of optimal breastfeeding outcomes. *C. 24 hrs* - Delaying breastfeeding for **24 hours** after birth can negatively impact the establishment of breastfeeding and deprive the newborn of early colostrum benefits. - This timeframe is significantly longer than the recommended period for initial feeding in a healthy infant. *D. 48 hrs* - Initiating breastfeeding after **48 hours** is considered a significant delay and is generally associated with difficulties in establishing breastfeeding and reduced breastfeeding duration. - By this point, the infant may be less receptive, and the mother's milk supply may not be as effectively stimulated.

Q: What is the osmolarity of F-100, a therapeutic milk formula used in the treatment of severe acute malnutrition?

419 mOsm/L. ***419 mOsm/L*** - The standard **osmolarity of F-100 therapeutic milk** is approximately **419 mOsm/L**, which is crucial for its efficacy in treating severe acute malnutrition. - This **specific osmolarity** is designed to provide adequate nutritional support while minimizing the risk of refeeding syndrome and other complications in malnourished children. *399 mOsm/L* - This value is **lower than the standard osmolarity of F-100** and would not meet the nutritional and osmotic requirements for optimal treatment of severe acute malnutrition. - Using a formula with a **lower osmolarity** could potentially lead to less effective repletion of fluid and electrolytes. *409 mOsm/L* - While closer, this value is **still below the established osmolarity** for F-100, which is intentionally formulated to be slightly hyperosmolar to facilitate nutrient absorption. - Small deviations in **osmolarity** can affect the physiological impact of the formula on a severely malnourished child. *429 mOsm/L* - This osmolarity is **higher than the recommended level for F-100** and could potentially increase the risk of complications such as osmotic diarrhea or renal solute load in severely malnourished infants. - Maintaining the correct **osmolarity** is vital for safe and effective nutritional rehabilitation.

Q: A 3-year-old child is brought to the clinic with severe malnutrition and presents with flaky paint dermatitis. What is the most likely diagnosis?

Kwashiorkor. ***Kwashiorkor*** - This condition is primarily caused by **protein deficiency** and is characterized by **edema**, **flaky paint dermatitis**, and often a distended abdomen despite muscle wasting. - The **flaky paint dermatitis** (desquamating skin lesions) is a classic dermatological manifestation of severe protein malnutrition. *Marasmus* - Marasmus results from severe **total caloric deficiency**, leading to extreme **wasting of muscle and fat**, giving a 'skin and bones' appearance. - While there is severe malnutrition, it typically **lacks the edema** and classic dermatological changes like flaky paint dermatitis seen in kwashiorkor. *Pellagra* - Pellagra is caused by a **niacin (Vitamin B3) deficiency** and is characterized by the "4 D's": **dermatitis**, diarrhea, dementia, and death. - The dermatitis in pellagra is typically found in **sun-exposed areas** and is sharply demarcated, unlike the widespread flaky paint dermatitis of kwashiorkor. *Zinc deficiency* - Zinc deficiency can cause a variety of skin lesions, including **acrodermatitis enteropathica**, which affects the mouth, anus, and extremities with vesicular or pustular eruptions. - While it can manifest with skin issues, the characteristic **flaky paint dermatitis** described is not solely indicative of zinc deficiency.

Q: A 2-year-old child with a history of eczema presents with a red, scaly rash around the mouth and extremities. A dietary history reveals excessive consumption of cow's milk. What nutritional deficiency is most likely?

Zinc deficiency. ***Zinc deficiency*** - The combination of **eczema**, perioral and acral **dermatitis** (red, scaly rash around the mouth and extremities), and a diet rich in **cow's milk** in a 2-year-old strongly points to zinc deficiency. - Cow's milk can inhibit **zinc absorption**, and infants with eczema may have increased zinc demands or impaired absorption. *Iron deficiency* - While common in toddlers, especially with high cow's milk intake, **iron deficiency** primarily manifests as **anemia**, pallor, and fatigue, not a characteristic rash. - It does not typically cause the specific **dermatitis** described. *Vitamin D deficiency* - Primarily linked to **rickets** in children, causing bone deformities and growth delays. - Does not present with a **red, scaly rash** around the mouth and extremities. *Vitamin C deficiency* - Leads to **scurvy**, characterized by swollen, bleeding gums, perifollicular hemorrhages, and poor wound healing. - The described **dermatological symptoms** are not typical of vitamin C deficiency.

Q: What is the recommended first food for a 6-month-old infant?

Iron-fortified cereal. ***Iron-fortified cereal*** - **Iron-fortified single-grain cereals** (like rice or oatmeal) are recommended as a first food for 6-month-old infants due to their easily digestible nature and the importance of **iron supplementation** at this age. - At 6 months, an infant's **iron stores begin to deplete**, and iron from complementary foods becomes crucial for development. *Whole cow's milk* - **Whole cow's milk** is not recommended for infants under 12 months as a primary beverage because it can interfere with **iron absorption** and may lead to **gastrointestinal bleeding**. - It also has a high protein and mineral content that can stress an infant's **developing kidneys**. *Honey* - **Honey** should not be given to infants under 12 months due to the risk of **infant botulism**, a rare but serious form of food poisoning. - The spores of *Clostridium botulinum* found in honey can germinate in an infant's immature digestive system. *Fruit juice* - **Fruit juice** offers no nutritional benefits over whole fruit and is not recommended for infants under 1 year of age. - Its high sugar content can contribute to **dental caries** and may lead to **diarrhea** or excessive weight gain.

Q: All of the following are true regarding breast milk as compared to cow's milk except

More amount of proteins. ***More amount of proteins*** - Breast milk actually contains a **lower concentration of protein** (1.0-1.3 g/100mL) compared to cow's milk (3.3 g/100mL), making this statement **FALSE**. - Cow's milk has nearly **3 times more protein** than breast milk, which is appropriate for a calf's rapid growth but excessive for human infants. - The type of protein in breast milk (60% whey, 40% casein) is also **easier for infants to digest** than the casein-dominant proteins (80% casein) in cow's milk. *Contains more lactose* - Breast milk has a **higher lactose content** (~7 g/100mL) than cow's milk (~4.8 g/100mL). - This higher lactose level is crucial for energy provision, calcium absorption, and development of the infant's central nervous system. *Less amount of fat content* - The **fat content is generally similar** between breast milk (3.5-4.5 g/100mL) and cow's milk (3.5-3.9 g/100mL). - However, breast milk fat is **more digestible** due to the presence of lipase enzyme and differs in fatty acid composition (more long-chain polyunsaturated fatty acids like DHA and ARA). - The fat content in breast milk varies significantly during a feed (foremilk vs hindmilk) and throughout lactation. *Minerals and salts are less* - Breast milk contains **lower amounts of minerals and salts** (sodium, potassium, calcium, phosphorus) than cow's milk. - This lower mineral content (renal solute load of 93 mOsm/L vs 221 mOsm/L in cow's milk) is beneficial for an infant's immature kidneys, preventing electrolyte imbalances and dehydration.

Q: Which of the following statements about hormone levels in a malnourished child is true?

Increased growth hormone levels. ***Increased growth hormone levels*** - In malnutrition, there is often an **increase in growth hormone (GH) levels** as the body attempts to mobilize energy stores and promote growth in a nutrient-depleted state. - This increased GH, however, often exists in a state of **GH resistance** due to low Insulin-like Growth Factor 1 (IGF-1) levels, meaning its effects on growth and anabolism are impaired. *Increased insulin levels* - **Insulin levels typically decrease** in malnutrition, particularly in protein-energy malnutrition, as the body aims to conserve glucose for vital organs and shift to fat and protein catabolism for energy. - Reduced caloric intake and decreased muscle mass lead to lower insulin sensitivity and production. *Decreased cortisol levels* - **Cortisol levels tend to be elevated** in malnourished children, especially in severe forms like kwashiorkor and marasmus. - This increase is part of the body's stress response, promoting **gluconeogenesis** and protein breakdown to provide energy substrates in the absence of adequate dietary intake. *Increased thyroid hormone levels* - **Thyroid hormone levels (T3 and T4) typically decrease** in malnutrition as an adaptive response to conserve energy. - This state of "sick euthyroid syndrome" or "low T3 syndrome" helps reduce metabolic rate and preserve energy stores during periods of nutritional deprivation.

Q: Breast milk protects from infections as it contains all of the following components except:

PABA. ***PABA (Para-aminobenzoic acid)*** - **PABA is NOT a component of breast milk** and has no role in infection protection. - PABA is a precursor in bacterial folic acid synthesis and is sometimes used in sunscreens, but it is not found in human breast milk. - This is the correct answer as it is the component that does NOT provide infection protection in breast milk. *IgE* - While **IgE** is present in trace amounts in breast milk, it plays a minimal role in infection protection. - IgE is primarily involved in **allergic responses and parasitic immunity**, not bacterial or viral protection. - The dominant protective immunoglobulin is **secretory IgA (sIgA)**, which provides mucosal immunity. *Lactoferrin* - **Lactoferrin** is a major antimicrobial protein in breast milk that binds iron, depriving bacteria of this essential nutrient. - It has direct **bactericidal and bacteriostatic effects** against various pathogens. - Also exhibits immunomodulatory and anti-inflammatory properties. *Bifidus factor* - **Bifidus factor** (human milk oligosaccharides) promotes the growth of beneficial *Bifidobacterium* species in the infant gut. - Creates an **acidic intestinal environment** (pH 5-6) that inhibits colonization by pathogenic bacteria. - Provides prebiotic support for healthy gut microbiome development.

Q: Kwashiorkor is due to deficiency of

Protein. ***Protein*** - **Kwashiorkor** is a severe form of **protein-energy malnutrition** characterized primarily by a **deficiency of protein** with relatively adequate calorie intake. - This protein deficiency leads to symptoms like **edema**, **distended abdomen**, skin lesions, and hair changes. *Minerals* - While mineral deficiencies can co-exist and exacerbate malnutrition, they are not the primary cause of Kwashiorkor. - Specific mineral deficiencies, such as **iron deficiency anemia** or **iodine deficiency goiter**, present with different primary symptoms. *Vitamins* - Vitamin deficiencies cause distinct conditions such as **scurvy** (Vitamin C), **beriberi** (Vitamin B1), or **rickets** (Vitamin D). - While vitamin deficiencies can be present in malnourished individuals, they are not the fundamental cause of the specific syndrome of Kwashiorkor. *Zinc* - **Zinc deficiency** can impair growth and immune function and is often seen in malnutrition, but it is not the main causal factor for the constellation of symptoms defining Kwashiorkor. - Direct zinc deficiency presents with symptoms like **impaired wound healing**, **diarrhea**, and **skin rashes**, which differ from the primary features of Kwashiorkor.

Question 1

An 8-month-old child was found to have features of vitamin A deficiency. What is the dose of oral vitamin A required?

Accepted Answer

1,00,000 IU

Answer

50,000 IU

Answer

75,000 IU

Answer

2,00,000 IU

Question 2

Within how many hours should breastfeeding be initiated in a perfectly healthy child with no anatomical problems?

Accepted Answer

A. 1 hour

Answer

C. 24 hrs

Answer

B. 4 hrs

Answer

D. 48 hrs

Question 3

What is the osmolarity of F-100, a therapeutic milk formula used in the treatment of severe acute malnutrition?

Accepted Answer

419 mOsm/L

Answer

399 mOsm/L

Answer

409 mOsm/L

Answer

429 mOsm/L

Question 4

A 3-year-old child is brought to the clinic with severe malnutrition and presents with flaky paint dermatitis. What is the most likely diagnosis?

Accepted Answer

Kwashiorkor

Answer

Marasmus

Answer

Pellagra

Answer

Zinc deficiency

Question 5

A 2-year-old child with a history of eczema presents with a red, scaly rash around the mouth and extremities. A dietary history reveals excessive consumption of cow's milk. What nutritional deficiency is most likely?

Accepted Answer

Zinc deficiency

Answer

Iron deficiency

Answer

Vitamin D deficiency

Answer

Vitamin C deficiency

Question 6

What is the recommended first food for a 6-month-old infant?

Accepted Answer

Iron-fortified cereal

Answer

Whole cow's milk

Answer

Honey

Answer

Fruit juice

Question 7

All of the following are true regarding breast milk as compared to cow's milk except

Accepted Answer

More amount of proteins

Answer

Contains more lactose

Answer

Minerals and salts are less

Answer

Less amount of fat content

Question 8

Which of the following statements about hormone levels in a malnourished child is true?

Accepted Answer

Increased growth hormone levels

Answer

Increased insulin levels

Answer

Decreased cortisol levels

Answer

Increased thyroid hormone levels

Question 9

Breast milk protects from infections as it contains all of the following components except:

Accepted Answer

PABA

Answer

IgE

Answer

Lactoferrin

Answer

Bifidus factor

Question 10

Kwashiorkor is due to deficiency of

Accepted Answer

Protein

Answer

Minerals

Answer

Vitamins

Answer

Zinc

Pediatric Nutrition — MCQs

Pediatric Nutrition — MCQs

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