Randomised controlled trial of albumin infusion in ill preterm infants. Randomised controlled trial of colloid infusions in hypotensive preterm infants. Concurrent administration of albumin with total parenteral nutrition in sick newborn infants. Rapid infusion of sodium bicarbonate and albumin into high-risk premature infants soon after birth: a controlled, prospective trial. Volume expansion with albumin compared to gelofusine in children with severe malaria: results of a controlled trial. Maintenance of serum albumin levels in pediatric burn patients: a prospective, randomized trial. Randomised controlled trial of colloid or crystalloid in hypotensive preterm infants. Postoperative albumin infusion therapy based on colloid osmotic pressure. A prospectively randomized trial. The efficacy of heparin in maintaining peripheral infusions in neonates.
We assessed the effect of albumin infusion on weight loss and ventilation requirement in sick premature infants. Thirty infants, median gestational age 29 weeks, were entered into a randomised controlled trial, at a median of 2 days of age. The infants, all with an albumin level < or = 30 g/l, received either 5 ml/kg of 20% albumin or 5 ml/kg of their maintenance fluids (placebo), both given as part of the total daily fluid requirement. The response to the infusion was assessed by comparing two periods; 12 h immediately prior to the infusion and 12-24 h after the infusion. Albumin infusion was associated with a significant increase in albumin level and a significant reduction in weight, but in the placebo group there was a significant increase in weight. There were, however, no significant changes in the peak inspiratory pressure in response to either infusion. There was only a modest reduction (< 15%) in the inspired oxygen concentration, which occurred in both groups, but reached statistical significance only following the albumin infusion. We conclude that our results suggest that albumin infusion in "hypoalbuminaemic" sick preterm infants is unlikely to alter their respiratory status. Colloid infusions are often given to treat hypotension in preterm infants. The aim of this work was to assess whether it was the amount of protein or the volume of the colloid infused which accounted for the observed increase in blood pressure. Sixty preterm infants were randomised (20 in each group) to receive 5 ml/kg 20% albumin, 15 ml/kg fresh frozen plasma, or 15 ml/kg 4.5% albumin. All infusions were given at a rate of 5 ml/kg/hour in addition to maintenance fluids. The infants were randomised when hypotensive (systolic blood pressure less than 40 mm Hg for two hours). There was no significant difference in the blood pressure of the three groups before or one hour after beginning the infusion. The mean increase in blood pressure one hour after completing the infusion, however, was significantly lower in infants receiving 20% albumin: 9% compared with 17% in the group receiving 4.5% albumin, and 19% in the group receiving fresh frozen plasma. It is concluded that the volume infused rather than albumin load is important in producing a sustained increase in blood pressure. The effects of concurrent administration of albumin with total parenteral nutrition were studied in 12 premature newborns (birth weight 1.26 +/- 0.1 kg [mean +/- SEM] and gestational age 30 +/- 0.8 weeks [mean +/- SEM]) compared with a control group of 12 premature newborns (birth weight 1.17 +/- 0.2 kg and gestational age 29 +/- 0.1 weeks) who received total parenteral nutrition. All newborns had a plasma albumin level below 3 g/dL and were in cardiorespiratory distress requiring assisted ventilation. Albumin supplementation of total parenteral nutrition resulted in a sustained increase in serum albumin concentration as well as increased mean arterial blood pressures in the study group. Slow albumin infusion had no observed effect on the severity of respiratory distress. Study group infants regained birth weight earlier than control group infants. These data suggest that the concurrent administration of albumin may be clinically beneficial in critically ill newborn infants. We conducted a controlled, prospective trial to evaluate the effectiveness of rapidly infusing sodium bicarbonate (NaHCO3) and salt-poor albumin into high-risk, premature infants in the first 2 hours of life. Fifty-three infants, randomized into one of four treatment groups, received 8 ml. per kilogram of a solution containing either (A) glucose in water, (B) salt-poor albumin, (C) NaHCO3, or (D) a combination of albumin and NaHCO3. After the initial infusion, the babies received no colloid or alkali solutions until 4 hours of age. We managed them supportively with warmth, appropriate oxygen administration, isotonic fluid infusion, and close monitoring. Among the infants who received alkali, 14 of 26 acquired the respiratory distress syndrome (RDS), 11 died, and four had intracranial hemorrhage. Among babies who received no alkali, RDS occurred in 11 of 27, 5 died, and none had intracranial hemorrhage. These results do not support the common practice of rapidly infusing NaHCO3 into high-risk, premature infants, and they suggest that the early management of such infants needs renewed critical evaluation. Previous studies have shown that in children with severe malaria, resuscitation with albumin infusion results in a lower mortality than resuscitation with saline infusion. Whether the apparent benefit of albumin is due solely to its colloidal properties, and thus might also be achieved with other synthetic colloids, or due to the many other unique physiological properties of albumin is unknown. As albumin is costly and not readily available in Africa, examination of more affordable colloids is warranted. In order to inform the design of definitive phase III trials we compared volume expansion with Gelofusine (succinylated modified fluid gelatin 4% intravenous infusion) with albumin.
                This study was a phase II safety and efficacy study.
                The study was conducted at Kilifi District Hospital, Kenya.
                The participants were children admitted with severe falciparum malaria (impaired consciousness or deep breathing), metabolic acidosis (base deficit > 8 mmol/l), and clinical features of shock.
                The interventions were volume resuscitation with either 4.5% human albumin solution or Gelofusine.
                Primary endpoints were the resolution of shock and acidosis; secondary endpoints were in-hospital mortality and adverse events including neurological sequelae.
                A total of 88 children were enrolled: 44 received Gelofusine and 44 received albumin. There was no significant difference in the resolution of shock or acidosis between the groups. Whilst no participant developed pulmonary oedema or fluid overload, fatal neurological events were more common in the group receiving gelatin-based intervention fluids. Mortality was lower in patients receiving albumin (1/44; 2.3%) than in those treated with Gelofusine (7/44; 16%) by intention to treat (Fisher's exact test, p = 0.06), or 1/40 (2.5%) and 4/40 (10%), respectively, for those treated per protocol (p = 0.36). Meta-analysis of published trials to provide a summary estimate of the effect of albumin on mortality showed a pooled relative risk of death with albumin administration of 0.19 (95% confidence interval 0.06-0.59; p = 0.004 compared to other fluid boluses).
                In children with severe malaria, we have shown a consistent survival benefit of receiving albumin infusion compared to other resuscitation fluids, despite comparable effects on the resolution of acidosis and shock. The lack of similar mortality benefit from Gelofusine suggests that the mechanism may involve a specific neuroprotective effect of albumin, rather than solely the effect of the administered colloid. Further exploration of the benefits of albumin is warranted in larger clinical trials. A prospective, randomized trial was performed to determine whether maintaining serum albumin levels in burned pediatric patients had any effect on morbidity and mortality. Patients < 19 years of age with burns > 20% total body surface area were randomized to receive supplemental albumin to maintain levels 2.5 to 3.5 g/dL ("High Albumin") or were given albumin only if levels dropped < 1.5 g/dL ("Low Albumin") after completing burn shock resuscitation. The 36 patients in the Low Albumin group were well matched for age, burn size, depth of injury, and inhalation injury when compared with the High Albumin group (34 patients). As expected, serum albumin levels were significantly lower in the Low Albumin group when compared with the High Albumin group. No differences between groups were noted for resuscitation needs, maintenance fluid requirements, urine output, tube feedings received, days of antibiotic treatment, or ventilatory requirements. No differences in hematology, electrolytes, or nutritional laboratories were found. Finally, length of stay, complication rate, and mortality were not affected by albumin treatment. Albumin supplementation to maintain normal serum levels does not seem to be warranted in previously healthy children who suffer severe burns and who receive adequate nutrition. To compare the efficacy of a colloid (5% albumin) and a crystalloid (isotonic saline) solution for treating hypotension in mechanically ventilated preterm infants.
                Sixty three preterm infants weighing 540 to 1950 g at birth and with gestational ages of 23 to 34 weeks, who developed hypotension (mean arterial pressure < 25, 30, and 35 mm Hg for infants with birthweight < 1, 1-1.49, and 1.5-1.99 kg, respectively) within the first 2 hours of life, were randomly allocated to receive intravenous infusions at 10 ml/kg of either 5% albumin (group 1, n = 32) or isotonic (0.9%) saline (group 2, n = 31). Inotropic support with dopamine infusion was given if the infants remained hypotensive after a total of three infusions (30 ml/kg). Subsequent extra doses of volume expander in the form of 5% albumin was given, depending on the infant's blood pressure.
                There was no difference in the volume of the test solutions required between the two groups. Outcome, as assessed by the number of infants requiring inotropic support and death or chronic lung disease, did not differ between the groups. After inotropic support, however, group 1 required significantly more volume expander to maintain normal blood pressure (median: 27.5 ml/kg vs 10 ml/kg; P = 0.0187) and had a higher mean (SEM) percentage weight gain within the first 48 hours of life (at 24 hours: 6.3(1.3)% vs 3.3(0.8)%; P = 0.049; at 48 hours: 5.9(1.9)% vs 0.9(1.7)%; P = 0.045). The difference in weight gain was significant at 48 hours even when only those infants not requiring inotropic support or extra 5% albumin were compared (group 1: 1.5(1.5)%, group 2: -4.2(1.1)%; P = 0.027).
                Isotonic saline is as effective as 5% albumin for treating hypotension in preterm infants, and it has the additional advantage of causing less fluid retention in the first 48 hours. In a prospectively randomized trial of 220 patients, 106 were given albumin when their colloid osmotic pressure (COP) fell below 24 cm H2O and 114 were given albumin when their COP fell below 29 cm H2O. There was no difference in the postoperative course between the two groups; however, by using the lower COP limit the postoperative albumin consumption in the intensive care unit was reduced significantly and thus the costs of treatment were lowered. In the case of extremely low COP, the prognosis of the disease worsened, indicating that the COP is of prognostic value. The albumin supply, however, did not influence the final outcome of the patients under these circumstances because it treated only a characteristic symptom and not the cause of the disease. The study set out to determine the survival times of peripheral total parenteral nutrition (TPN) infusion sites in neonates using a prospective, single blind, randomised trial design. The effects of various concentrations of co-administered heparin was measured using survival analysis, and of other continuous variables using multivariate analysis, against a non-heparinized control group. The study was conducted in special care baby unit located within a specialist maternity hospital in London, United Kingdom. Heparin at 0.1, 0.25, 0.5 and 1 IU/ml was added to TPN infusions delivered through peripheral veins and the survival times of the infusions determined. For infusion sites receiving heparinized fluids, the relative risk of failure decreased and the median survival time increased as the heparin concentration increased, with a maximal effect at a heparin concentration of 0.5 IU/ml (P < 0.001). Multivariate analysis using the Cox proportional hazard model confirmed the efficacy of heparin and highlighted a history of infusion therapy and the co-administration of gentamicin (from a range of drugs analysed) as being risk factors associated with infusion site failure.
                Intravenous infusion survival time can be prolonged using heparin additive at an optimal concentration of 0.5 IU/ml. This should also be of additional interest to paediatricians as heparin is an ubiquitous drug on neonatal units and its clinical use needs to be rationalised.
There is a lack of evidence from randomised trials to determine whether the routine use of albumin infusion in preterm neonates with low serum albumin reduces mortality or morbidity and no evidence to assess whether albumin infusion is associated with significant side effects. There is a need for good quality, double-blind randomised controlled trials to assess the safety and efficacy of albumin infusions in preterm neonates with low serum albumin.