Case Report: High-Dose Ferric Carboxymaltose as an Antianaemic Agent to Avoid Haemotransfusions after Total Hip Replacement.

This article highlights a case of high-dose ferric carboxymaltose (Ferinject®) for the treatment of perioperative iron deficiency anaemia in a 39-year-old patient with dysplastic coxarthrosis. The patient was admitted routinely for a total hip replacement of the left hip joint. She had been suffering from pain, lameness, and restriction of movement in her left hip joint for the past several years. The patient was admitted with initial iron deficiency anaemia of a medium severity (Hgb-96.5 g/L, RBC-3.97 × 1012/L). Laboratory tests were taken to determine the iron deficiency, and transfusion readiness was submitted. The patient received ferric carboxymaltose infusion before surgery. The intraoperative blood loss was-100 mL with an operation duration of 50 min. On the first postoperative day, haemoglobin decreased to 86 g/L. No haemoglobin decrease was observed in the postoperative period, and 92 g/L was the amount of haemoglobin at the time of hospital discharge. The optimal dose for the treatment of perioperative anaemia has not been established; some studies recommend ferric carboxymaltose at a dose of 15 to 20 mg/kg and a maximum of 1000 mg once on the first day after surgery. The uniqueness of this case report is that a high dose of ferric carboxymaltose (1340 mg) during the preoperative period was applied. No side effects such as hypophosphatemia were reported. We believe that, in this clinical case, the patient managed to avoid large intraoperative blood loss and transfusions by using high doses of ferric carboxymaltose.

The influences of morphine or ketamine pre-treatment on hemodynamic, acid-base status, biochemical markers of brain damage and early survival in rats after asphyxial cardiac arrest.

BACKGROUND: In different models of hypoxia, blockade of opioid or N-methyl-D-aspartate (NMDA) receptors shows cardio- and neuroprotective effects with a consequent increase in animal survival. The aim of the study was to investigate effects of pre-treatment with Morphine or Ketamine on hemodynamic, acid-base status, early survival, and biochemical markers of brain damage in a rat model of asphyxial cardiac arrest (ACA). METHODS: Under anaesthesia with Thiopental Sodium 60 mg/kg, i.p., Wistar rats (n = 42) were tracheostomized and catheters were inserted in a femoral vein and artery. After randomization, the rats were pre-treated with: Morphine 5 mg/kg i.v. (n = 14); Ketamine 40 mg/kg i.v. (n = 14); or equal volume of i.v. NaCl 0.9% as a Control (n = 14). ACA was induced by corking of the tracheal tube for 8 min, and defined as a mean arterial pressure (MAP) < 20 mmHg. Resuscitation was started at 5 min after cardiac arrest (CA). Invasive MAP was recorded during experiments. Arterial pH and blood gases were sampled at baseline (BL) and 10 min after CA. At the end of experiments, all surviving rats were euthanised, brain and blood samples for measurement of Neuron Specific Enolase (NSE), s100 calcium binding protein B (s100B) and Caspase-3 (CS-3) were retrieved. RESULTS: At BL no differences between groups were found in hemodynamic or acid-base status. After 3 min of asphyxia, all animals had cardiac arrest (CA). Return of spontaneous circulation (MAP > 60 mmHg) was achieved in all animals within 3 min after CA. At the end of the experiment, the Ketamine pre-treated group had increased survival (13 of 14; 93%) compared to the Control (7 of 14; 50%) and Morphine (10 of 14; 72%) groups (p = 0.035). Biochemical analysis of plasma concentration of NSE and s100B as well as an analysis of CS-3 levels in the brain tissue did not reveal any differences between the study groups. CONCLUSION: In rats after ACA, pre-treatment with Morphine or Ketamine did not have any significant influence on hemodynamic and biochemical markers of brain damage. However, significantly better pH level and increased early survival were found in the Ketamine pre-treated group.