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Esophageal Atresia: Nutritional Status and Energy Metabolism to Maximize Growth Outcome
Gloria Pelizzo1,2, Francesca Destro1, Giorgio Giuseppe Orlando Selvaggio1
1Pediatric Surgery Department, "V. Buzzi" Children's Hospital, 20157 Milano, Italy.
Insights
Children with repaired esophageal atresia (EA) often face malnutrition. Specific EA types, surgical interventions, and being small for gestational age are key risk factors requiring personalized nutritional support.
Area of Science:
- Pediatric Surgery
- Nutritional Science
- Metabolic Research
Background:
- Esophageal atresia (EA) repair can lead to long-term growth and nutritional deficits in children.
- Understanding the nutritional status and energy metabolism in these children is crucial for effective growth management.
Purpose of the Study:
- To assess the nutritional profile and energy metabolism in children with repaired EA.
- To identify specific risk factors associated with malnutrition in this population.
- To inform strategies for optimizing growth and nutritional programming.
Main Methods:
- Included 21 children over 4 years old with repaired EA.
- Conducted anthropometric measurements, nutritional assessments, and measured energy metabolism.
- Defined undernutrition using BMI <-2 standard deviation (SD) and analyzed medical records for EA type, surgery, and perinatal data.
Main Results:
- 28.6% of children exhibited malnutrition, with underweight (23.8%) and wasting (28.6%) being prevalent.
- Lower resting energy expenditure (REE) was observed in undernourished children.
- Malnutrition correlated with EA types A and C, specific surgical interventions (e.g., deferred anastomosis, gastric pull-up), and being small for gestational age.
Conclusions:
- Identified key risk factors for undernutrition beyond malformation type, including surgical and perinatal factors.
- Emphasized the importance of monitoring energy metabolism to meet nutritional requirements.
- Personalized nutritional programming and management are vital to counteract poor growth in children with EA.
Background:
Long-term negative sequelae of esophageal atresia (EA) may induce poor growth and impaired nutritional status in childhood. We describe the nutritional profile and energy metabolism of children with repaired EA to identify malnutrition risk factors and optimize growth management.
Methods:
Twenty-one children (>4 years) were included, and anthropometric measurements, nutritional assessment, and energy metabolism were considered. The subjects were defined as undernourished if they met BMI < -2 standard deviation (SD). To grade undernutrition, we defined the prevalence of underweight, stunting, and wasting (cut-off level of <-2 SD). Medical records were reviewed for the type of EA and surgery and perinatal data.
Results:
Malnutrition was detected in 28.6% of children. Underweight was detected in 23.8% of patients (all with undernutrition p < 0.01). Wasting was noted in 28.6% of patients, of these 5 children were undernourished (p < 0.001) and stunting was noticed in only one patient with malnutrition (p = 0.5). Resting expenditure energy (REE) was lower in undernourished subjects compared to subjects with adequate nutritional status (p < 0.001). Malnutrition was associated to: type of EA (p = 0.003, particularly type A and C); intervention including deferred anastomosis due to long-gap repair (p = 0.04) with/or without jejunostomy (p = 0.02), gastric pull-up (p = 0.04), primary anastomosis (p = 0.04), pyloromyotomy in long-gap (p < 0.01); small for gestational age condition (p = 0.001).
Conclusions:
undernutrition risk factors, beyond the type of malformation, surgery, and perinatal factors, must be early considered to personalize nutritional programming. Energy metabolism is important to monitor the nutritional requirements. The management of nutritional issues is surely a contributory factor able to counteract the poor growth of children with EA.
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