Post-partum relapse in women with multiple sclerosis after neuraxial labour analgesia or neuraxial anaesthesia: A multicentre retrospective cohort study.

BACKGROUND: The proportion of women with multiple sclerosis experiencing a relapse in the post-partum period after neuraxial labour analgesia or neuraxial anaesthesia remains uncertain. This study aimed to assess the association between neuraxial labour analgesia or neuraxial anaesthesia and the occurrence of relapse during the first three months post-partum. METHODS: In this retrospective cohort study, cases of women with a diagnosis of multiple sclerosis delivering between January 2010 and April 2015 were analysed. Demographic, anaesthetic and obstetric characteristics, occurrence and number of relapses in the year preceding pregnancy, during pregnancy, and the first three post-partum months, were recorded. Logistic regression analyses were performed for the identification of factors associated with the occurrence of post-partum relapse. RESULTS: A total of 118 deliveries in 104 parturients were included, these were 78 (66%) vaginal deliveries and 40 (34%) caesarean deliveries. Neuraxial analgesia was provided in 50 deliveries, and neuraxial anaesthesia in 46 deliveries; no neuraxial anaesthesia or analgesia was administered in remaining 22 deliveries. Post-partum relapse occurred in 31 women (26%). There was no association between obstetric or anaesthetic characteristics and post-partum relapse. Both the occurrence and number of relapses prior to and during pregnancy, and the time between last relapse and delivery, were significantly associated with post-partum relapse in univariate analysis. The occurrence of relapse within the year preceding the pregnancy was the sole independent factor associated with post-partum relapse. CONCLUSION: Neuraxial procedures were not associated with increased rate of post-partum relapse; only disease activity prior to pregnancy was predictive of post-partum relapse.

Postpartum hemorrhage: guidelines for clinical practice from the French College of Gynaecologists and Obstetricians (CNGOF): in collaboration with the French Society of Anesthesiology and Intensive Care (SFAR).

Postpartum haemorrhage (PPH) is defined as blood loss ≥500mL after delivery and severe PPH as blood loss ≥1000mL, regardless of the route of delivery (professional consensus). The preventive administration of uterotonic agents just after delivery is effective in reducing the incidence of PPH and its systematic use is recommended, regardless of the route of delivery (Grade A). Oxytocin is the first-line prophylactic drug, regardless of the route of delivery (Grade A); a slowly dose of 5 or 10 IU can be administered (Grade A) either IV or IM (professional consensus). After vaginal delivery, routine cord drainage (Grade B), controlled cord traction (Grade A), uterine massage (Grade A), and routine bladder voiding (professional consensus) are not systematically recommended for PPH prevention. After caesarean delivery, placental delivery by controlled cord traction is recommended (grade B). The routine use of a collector bag to assess postpartum blood loss at vaginal delivery is not systematically recommended (Grade B), since the incidence of severe PPH is not affected by this intervention. In cases of overt PPH after vaginal delivery, placement of a blood collection bag is recommended (professional consensus). The initial treatment of PPH consists in a manual uterine examination, together with antibiotic prophylaxis, careful visual assessment of the lower genital tract, a uterine massage, and the administration of 5-10 IU oxytocin injected slowly IV or IM, followed by a maintenance infusion not to exceed a cumulative dose of 40IU (professional consensus). If oxytocin fails to control the bleeding, the administration of sulprostone is recommended within 30minutes of the PPH diagnosis (Grade C). Intrauterine balloon tamponade can be performed if sulprostone fails and before recourse to either surgery or interventional radiology (professional consensus). Fluid resuscitation is recommended for PPH persistent after first line uterotonics, or if clinical signs of severity (Grade B). The objective of RBC transfusion is to maintain a haemoglobin concentration (Hb) >8g/dL. During active haemorrhaging, it is desirable to maintain a fibrinogen level ≥2g/L (professional consensus). RBC, fibrinogen and fresh frozen plasma (FFP) may be administered without awaiting laboratory results (professional consensus). Tranexamic acid may be used at a dose of 1 g, renewable once if ineffective the first time in the treatment of PPH when bleeding persists after sulprostone administration (professional consensus), even though its clinical value has not yet been demonstrated in obstetric settings. It is recommended to prevent and treat hypothermia in women with PPH by warming infusion solutions and blood products and by active skin warming (Grade C). Oxygen administration is recommended in women with severe PPH (professional consensus). If PPH is not controlled by pharmacological treatments and possibly intra-uterine balloon, invasive treatments by arterial embolization or surgery are recommended (Grade C). No technique for conservative surgery is favoured over any other (professional consensus). Hospital-to-hospital transfer of a woman with a PPH for embolization is possible once hemoperitoneum is ruled out and if the patient's hemodynamic condition so allows (professional consensus).

Iron therapy in iron deficiency anemia in pregnancy: intravenous route versus oral route.

OBJECTIVE: The aim of this study was to compare intravenous iron sucrose versus oral iron sulfate in anemia at 6 months of pregnancy. STUDY DESIGN: A random, prospective, open study with individual benefit was performed involving 50 patients with hemoglobin levels between 8 and 10 g/dL and a ferritin value of <50 microg/L. In the intravenous group (IV group), the iron dose was calculated from the following formula: Weight before pregnancy (kg) x (120 g/L - Actual hemoglobin [g/L]) x 0.24 + 500 mg. The oral group (PO group) received 240 mg of iron sulfate per day for 4 weeks. Treatment efficacy was assessed by measurement of hemoglobin and reticulocytes on days 8, 15, 21, and 30 and at delivery and of ferritin on day 30 and at delivery. The baby's birth weight and iron stores were noted. Results were expressed as median +/- interquartile range. Mann-Whitney and Wilcoxon tests were used for the analysis, with P <.05 considered significant. RESULTS: An increase in hemoglobin was observed, rising from 9.6 +/- 0.79 g/dL to 11.11 +/- 1.3 g/dL on day 30 in the IV group and from 9.7 +/- 0.5 g/dL to 11 +/- 1.25 g/dL on day 30 in the PO group (not significant). On day 30 (P <.0001) and at delivery (P =.01) ferritin was higher in the IV group. A mean higher birth weight of 250 g was noted in the IV group (not significant). CONCLUSION: Iron sucrose appears to be a treatment without serious side effects indicated in correction of pregnancy anemia or iron stores depletion.

Colostrum morphine concentrations during postcesarean intravenous patient-controlled analgesia.

UNLABELLED: Patient-controlled analgesia (PCA) with morphine is a convenient method for providing postoperative analgesia. Despite the fact that it is used after cesarean delivery, data on transfer of morphine and of its active metabolite morphine-6 glucuronide (M6G) into maternal milk are scarce. It is not known whether breast-feeding during PCA with morphine has neonatal implications. We sought to measure morphine and M6G concentrations in colostrum during postpartum IV PCA and evaluate the potential for drug intake by neonates being breast-fed by these mothers. Seven informed and consenting mothers, given IV PCA with morphine, were investigated. Plasma and milk samples were obtained at titration, and at 12, 24, 36, and 48 h. Morphine and M6G were measured by high-performance liquid chromatography. In plasma, morphine concentrations ranged from <1 to 274 ng/mL, M6G ranged from <5 to 974 ng/mL. In milk, opioids were found in only 3 patients in whom morphine concentrations ranged from <1 to 48 ng/mL and M6G from <5 to 1084 ng/mL. The milk-to-plasma ratio was always <1 for morphine. In conclusion, we observed very small morphine and M6G concentrations in colostrum during PCA with morphine. Under these conditions, the amounts of drug likely to be transferred to the breast-fed neonate are negligible. IMPLICATIONS: Colostrum concentrations of morphine and its active metabolite morphine-6 glucuronide were measured in mothers receiving patient-controlled analgesia with morphine after cesarean delivery. The concentrations were found to be very small, thus supporting the safety of breast-feeding in mothers receiving IV patient-controlled analgesia with morphine.