Skip to main content

Table 2 Included Studies– Nutritional Interventions

From: Malnutrition screening and treatment in pediatric oncology: a scoping review

Publication

Design or sample*

Measures

Results

Prasad, et.al

(2021) [26]

Randomized, open-label phase 3 trial

Ready-to-use therapeutic food (RUTF)

260 patients (intervention group n = 130; control group n = 130)

Biometrics: weight, nutritional status, fat mass

Complications: infection, mucositis

• Intervention increased weight gain (77.8% vs 64.2%) (p = 0.025)

• Significant increase in fat mass (p = 0.005)

• Increased number of patients with normal nutritional status (p = 0.02)

• Decreased complications (infections: p < 0.0001; mucositis: p = 0.006)

Liang, et.al

(2018) [21]

Quasi-experimental study

Oral formula supplement

127 patients (intervention group n = 67; control group n = 60)

Biometrics: weight, hemoglobin, total protein, albumin, prealbumin

Complications: hypoalbuminaemia, gastrointestinal complications, and infections

• Increase in weight and hemoglobin with formula supplement (p < 0.05)

• Formula supplement increased total protein, albumin, and prealbumin (p < 0.001)

• Decreased complications in intervention group (p < 0.05)

• Fewer blood and albumin infusions for intervention group (p < 0.05)

Gurlek Gokcebay, et.al

(2015) [22]

Monitoring children during cancer therapy

Isocaloric versus hypercaloric supplements for children with malnutrition

45 total patients (malnourished n = 26; hypercaloric supplement n = 18; isocaloric supplement n = 8)

Biometrics: weight, BMI, WFH, MUAC, TSF, serum albumin, prealbumin, protein

Malnutrition criteria (at least 1 of the following): BMI < 5%ile, WFH < 90%ile, TSFT or MUAC < 5%ile, or 5% weight loss

• No statistical difference between hypercaloric and isocaloric formula

• Decrease in malnutrition diagnosis with supplement (p = 0.006)

• At 6 months, formula increased WFH (p = 0.003), BMI (p = 0.003), TSF (P = 0.007), and MUAC (p < 0.001)

• Also increased serum albumin levels (p < 0.001) and prealbumin (p = 0.005) at 3 and 6 months

Cuvelier, et.al

(2014) [23]

Randomized, double-blind, placebo-controlled study

Megestrol acetate (MA)

26 patients (intervention group n = 13; placebo group n = 13)

Biometrics: weight, WAZ, HAZ, BMI-Z, MUAC, TSF

Secondary outcomes: body composition, toxicities

• MA associated with significant weight gain (p = 0.003), WAZ (p = 0.002), BMI-Z (p = 0.006), and MUAC (p = 0.01)

• No significant difference in HAZ or TSF

Sacks, et.al

(2014) [24]

Pilot study

Proactive enteral tube feeding

53 patients (intervention group n = 20; control group n = 33)

Biometrics: WFH, BMI, WAZ

Secondary outcomes: infection

• Intervention group had less of a loss in WAZ than control group (19% decrease vs. 40% decrease, respectively) from diagnosis to tube feeding initiation (p = 0.037)

• No p-values were reported for changes in WFH and BMI

• No difference in infectious complications

Couluris, et.al

(2008) [25]

Open label phase 2 trial

Cyproheptadine hydrochloride (CH) and megestrol acetate (MA) for CH failure

CH intervention n = 66; MA intervention n = 6

Biometrics: weight, growth rate, WFH, WAZ, prealbumin, leptin

Treatment response (stable or increased weight)

• CH significantly increased weight (p = 0.001), WAZ (p = 0.001), serum leptin levels (p = 0.0004)

• 76% treatment response with CH

• 5 of 6 patients on MA responded to therapy

• No significant difference in prealbumin

  1. WFH weight-for-height, BMI body mass index, MUAC mid-upper arm circumference, MA megestrol acetate, WAZ weight-for-age z-score, ALL acute lymphoblastic leukemia, TSF triceps skinfold thickness, *sample included analyzed patients only