WHO sponsored collaborative studies on nutritional anaemia in India. The effect of parenteral iron administration in the control of anaemia of pregnancy. Effect of intravenous iron supplementation on erythropoiesis in erythropoietin-treated premature infants. A prospective randomized, controlled trial of intravenous versus oral iron for moderate iron deficiency anaemia of pregnancy. Intravenous versus oral iron for treatment of anemia in pregnancy: a randomized trial. A comparison between intravenous iron polymaltose complex (Ferrum Hausmann) and oral ferrous fumarate in the treatment of iron deficiency anaemia in pregnancy. Comparison of oral versus intravenous iron therapy in predialysis patients of chronic renal failure receiving recombinant human erythropoietin. Oral versus high dose parenteral iron supplementation in pregnancy. A randomized controlled trial of oral versus intravenous iron in chronic kidney disease. Effectiveness of recombinant erythropoietin and iron sucrose vs. iron therapy only, in patients with postpartum anaemia and blunted erythropoiesis. The prevention of anaemia in pregnancy in primigravidae in the guinea savanna of Nigeria. A randomized study of oral vs intravenous iron supplementation in patients with progressive renal insufficiency treated with erythropoietin. Use of recombinant human erythropoietin in combination with parenteral iron in the treatment of postpartum anaemia. [Anemia in puerperium; parenteral iron substitution renders erythropoietin therapy dispensable]. A comparative study between intramuscular iron dextran and oral ferrous sulphate in the treatment of iron deficiency anaemia in pregnancy. Evaluation of a gastric delivery system for iron supplementation in pregnancy. Comparison of effect of daily versus weekly iron supplementation during pregnancy on lipid peroxidation. Supplementation of iron alone and combined with vitamins improves haematological status, erythrocyte membrane fluidity and oxidative stress in anaemic pregnant women. Treatment with iron increases weight gain and psychomotor development. Intravenous iron sucrose in Chinese hemodialysis patients with renal anemia.
1. The relative efficacy of oral and parenteral iron administration in the prophylaxis and treatment of Fe-deficiency anaemia of pregnancy has been studied. 2. Intravenous administration of Fe by total dose infusion of Fe dextran was not superior to oral Fe 120 mg/d, 6 d/week for 10-12 weeks. 3. Intramuscular Fe dextran, 100 mg twice per week for 10-12 weeks, produced a significantly greater rise in mean haemoglobin concentration than oral Fe therapy. 4. The superiority of intramuscular Fe as compared with intravenous Fe is probably related to the different handling of the Fe dextran by the reticulo-endothelial system. 5. In spite of the better response to intramuscular Fe dextran, it is not recommended for public health practice because of the risks associated with its use and the much higher cost of the preparation and its delivery. To test the efficacy and safety of combining intravenous iron in amounts approximating the in utero iron accretion rate and the postnatal iron loss with erythropoietin (EPO) in very low birth weight (VLBW) infants.
                A prospective, controlled, randomized, unmasked trial lasting 21 days was performed in 29 clinically stable VLBW infants <31 weeks' gestation and <1300 g birth weight not treated with red blood cell transfusions during the study period. Mean (+/- standard error of the mean) age at study entry was 23 +/- 2.9 days. After a 3-day run-in baseline period in which all participants received oral supplements of 9 mg/kg/day of iron polymaltose complex (IPC), participants were randomized to receive 18 days of treatment with: 1) oral IPC alone (oral iron group); 2) 300 U of recombinant human EPO (r-HuEPO) kg/day and daily oral IPC (EPO + oral iron group); 3) 2 mg/kg/day of intravenous iron sucrose, r-HuEPO, and oral iron (intravenous iron + EPO group). To assess efficacy of the 3 treatments, serial blood samples were analyzed for hemoglobin (Hb), hematocrit (Hct), reticulocyte count, red blood cell indices and plasma levels of transferrin, transferrin receptor (TfR), ferritin, and iron. Oxidant injury was assessed before and after treatment by plasma and urine levels of malondialdehyde (MDA) and o-tyrosine.
                At the end of treatment, Hb, Hct, reticulocyte count, and plasma TfR were markedly higher in both of the EPO-treated groups, compared with the oral iron group. At study exit a trend toward increasing Hb and Hct levels and significantly higher reticulocyte counts were observed in the intravenous iron + EPO group, compared with the EPO + oral iron group. During treatment, plasma ferritin levels increased significantly in the intravenous iron + EPO group and decreased significantly in the other 2 groups. By the end of treatment, ferritin levels were significantly higher in the intravenous iron + EPO group compared with the other 2 groups. Although plasma and urine MDA or o-tyrosine did not differ among the 3 groups, plasma MDA was significantly greater in the subgroup of intravenous iron + EPO participants sampled at the end of the 2-hour parenteral iron infusion, compared with values observed immediately before and after parenteral iron-dosing.
                In stable VLBW infants receiving EPO treatment, parenteral supplementation with 2 mg/kg/day of iron sucrose results in a small, but significant, augmentation of erythropoiesis beyond that of r-HuEPO and enteral iron alone. However, to reduce the potential adverse effects of parenteral iron/kg/day on increasing plasma ferritin levels and on causing oxidative injury, we suggest that the parenteral iron dose used should be reduced and/or the time of infusion extended to maintain a serum iron concentration below the total iron-binding capacity. Iron deficiency anaemia is the most common deficiency disorder in the world, affecting more than one billion people, with pregnant women at particular risk.
                We conducted a single site, prospective, nonblinded randomized-controlled trial to compare the efficacy, safety, tolerability and compliance of standard oral daily iron versus intravenous iron.
                We prospectively screened 2654 pregnant women between March 2007 and January 2009 with a full blood count and iron studies, of which 461 (18%) had moderate IDA. Two hundred women matched for haemoglobin concentration and serum ferritin level were recruited.
                Patients were randomized to daily oral ferrous sulphate 250 mg (elemental iron 80 mg) with or without a single intravenous iron polymaltose infusion.
                Prior to delivery, the intravenous plus oral iron arm was superior to the oral iron only arm as measured by the increase in haemoglobin level (mean of 19.5 g/L vs. 12 g/L; P < 0.001); the increase in mean serum ferritin level (222 microg/L vs. 18 ug/L; P < 0.001); and the percentage of mothers with ferritin levels below 30 microg/L (4.5% vs. 79%; P < 0.001). A single dose of intravenous iron polymaltose was well tolerated without significant side effects.
                Our data indicate that intravenous iron polymaltose is safe and leads to improved efficacy and iron stores compared to oral iron alone in pregnancy-related IDA. The aim of this study was to compare the efficacy of intravenous iron to oral iron in the treatment of anemia in pregnancy.
                In this randomized open-label study, 90 women with hemoglobin levels between 8 and 10.5 g/dL and ferritin values less than 13 microg/L received either oral iron polymaltose complex (300 mg elemental iron per day) or intravenous iron sucrose. The iron sucrose dose was calculated from the following formula: weight before pregnancy (kg) x (110 g/L - actual hemoglobin [g/L]) x 0.24 + 500 mg. Treatment efficacy was assessed by measuring hemoglobin and ferritin on the 14th and 28th days and at delivery, and the hemoglobin on the first postpartum day. Adverse drug reactions, fetal weight, hospitalization time, and blood transfusions were also recorded.
                Hemoglobin values varied significantly with time between groups (interaction effect, P < .001). The change in hemoglobin from baseline was significantly higher in the intravenous group than the oral group at each measurement; the changes with respect to subsequent hemoglobin were significantly higher on the 14th (P = .004) and 28th (P = .031) days. Ferritin values were higher in patients receiving intravenous iron throughout pregnancy. No serious adverse drug reactions were observed. Fetal weight and hospitalization time were similar in the 2 groups. Blood transfusion was required for only one patient in the oral group.
                Intravenous iron treated iron-deficiency anemia of pregnancy and restored iron stores faster and more effectively than oral iron, with no serious adverse reactions. Anaemia is the most common medical disorder in pregnancy with iron deficiency anaemia accounting for the majority of cases. Over 90% of the iron deficiency anaemia is due to red cell iron deficiency associated with depleted iron stores and deficient intake. The two main modalities of treating iron deficiency anaemia are oral or parenteral iron. Ferrous Hausmann (iron dextrin) is the latest iron preparation which can be used for intravenous parenteral administration as a total dose infusion. This study compares the efficacy of Ferrum Hausmann with oral ferrous fumarate therapy in the treatment of iron deficiency anaemia in pregnancy. Our study shows that treatment with intravenous Ferrum Hausmann (iron dextrin) resulted in a significantly better level and rate of increase of haemoglobin (p<0.001). Serum ferritin, which is the best indicator of iron stores, was significantly higher (p<0.001) in the intravenous group. Other indices of iron status such as serum iron, serum transferrin and zinc protoporphyrin also showed a significant improvement in the intravenous group compared to those given oral iron. The results suggest that intravenous iron as a total dose infusion is able to replenish iron stores more efficiently, completely and at a faster rate than oral iron therapy, thus providing the fuel for stimulation of full erythopoiesis compared to oral iron. There were also no reports of any adverse reactions with intravenous iron dextrin, whereas there were a considerable proportion of women on oral iron therapy who reported side effects. In conclusion, intravenous iron therapy with Ferrous Hausmann (iron dextrin) is a suitable, effective and safe alternative to oral iron therapy in the treatment of iron deficiency anaemia in pregnancy. To compare oral versus intravenous iron in pre-dialysis patients of chronic renal failure (CRF) receiving recombinant human erythropoietin (rHuEPO).
                The study was undertaken in 40 adult patients of chronic renal failure. The patients were randomly divided into two groups A and B of 20 patients each. Group A patients were given oral iron and group B patients were given intravenous iron. All patients in both groups were given recombinant human erythropoietin 2000 IU twice weekly subcutaneously. The study was carried for up to three months. Patients were monitored every month for renal parameters and haematological parameters which included haemoglobin, reticulocyte count and packed cell volume. Ferrokinetic studies were done at baseline and at three months.
                It was observed that haematological parameters showed significant statistical improvement in the intravenous iron group as compared to group A (oral iron group). The ferrokinetic studies revealed that serum iron, serum ferritin and transferrin saturation, decreased significantly in oral iron group, whereas significant increase was seen in group B (intravenous iron group). None of the patients developed any adverse effects because of erythropoietin or iron therapy.
                Concomitant use of intravenous iron is better than oral iron in CRF patients treated with rHuEPO. The intravenous route of iron administration may be a preferred route along with rHuEPO therapy, more so in the Indian context where prevalence of iron deficiency anaemia is fairly high. To compare the effect of daily oral iron supplementation with two injections of high dose parenteral iron.
                A total of 220 pregnant women with a singleton pregnancy and hemoglobin between 8 to 11 g% at 16-24 weeks gestation were identified and randomly divided into two groups. Group A was started on daily oral iron therapy of 100 mg of elemental iron. Group B was given 250 mg of iron sorbitol intramuscularly and repeated at an interval of 4-6 weeks. Blood indices were evaluated at the beginning of study and at 36 weeks to see the effect after iron supplementation in the two groups. The data were analyzed using SPSS software, version 10.1.
                Definitive and comparable improvement in hemoglobin and all the blood indices (hematocrit, MCH, MCHC, MCV, Serum iron and TIBC) was observed. The absolute change in hemoglobin and hematocrit was 1.18+/-0.68 g% and 4.02+/-2.59% in oral group, 1.34+/-0.77 g% and 4.93+/-3.65% in parenteral group, respectively. Serum ferritin showed statistically significant absolute rise (10.43+/-7.92 microg/dl) after parenteral iron supplementation as compared to oral iron supplementation (9.76+/-4.78 microg/dl). Obstetric outcome was comparable in two groups.
                Two treatment regimens are biologically equivalent in terms of hematological response. Two high doses of intramuscular iron can be a good substitute to meet iron requirement in pregnancy. It is unknown whether intravenous iron or oral iron repletion alone can correct anemia associated with chronic kidney disease (CKD). We conducted a randomized multicenter controlled trial in adult anemic, iron-deficient non-dialysis CKD (ND-CKD) patients (>or=stage 3) not receiving erythropoiesis-stimulating agents (ESAs).
                The participants were randomized to receive either a sodium ferric gluconate complex (intravenous iron) 250 mg i.v. weekly x 4 or ferrous sulfate (oral iron) 325 mg t.i.d. x 42 days. Hemoglobin (Hgb), ferritin and transferrin saturation (TSAT) were measured serially, and the Kidney Disease Quality of Life (KDQoL) questionnaire was administered on days 1 and 43. The primary outcome variable was change from baseline (CFB) to endpoint in Hgb values.
                Seventy-five patients were analyzed (intravenous iron n = 36, oral iron n = 39). CFB in Hgb was similar in the two groups (intravenous iron 0.4 g/dl vs. oral iron 0.2 g/dl, p = n.s.). However, the increase in Hgb was only significant with intravenous iron (p < 0.01). In comparison to oral iron, intravenous iron achieved greater improvements in ferritin (232.0 +/- 160.8 vs. 55.9 +/- 236.2 ng/ml, p < 0.001) and TSAT (8.3 +/- 7.5 vs. 2.9 +/- 8.8%, p = 0.007). Intravenous iron caused greater improvements in KDQoL scores than oral iron (p < 0.05). The most common side effect reported with intravenous iron was hypotension, while constipation was more common with oral iron.
                Oral and intravenous iron similarly increase Hgb in anemic iron-depleted ND-CKD patients not receiving ESAs. Although in comparison to oral iron, intravenous iron may result in a more rapid repletion of iron stores and greater improvement in quality of life, it exposes the patients to a greater risk of adverse effects and increases inconvenience and cost.
                Copyright (c) 2006 S. Karger AG, Basel. To compare efficacy between recombinant human erythropoietin (rhEPO) plus parenteral iron vs. iron alone (parenteral vs. oral) in postpartum anaemia.
                Sixty patients (haemoglobin 8.6 +/- 1.1 g dL-1) were randomized to rhEPO plus intravenous (i.v.) iron sucrose (group 1), rhEPO placebo plus i.v. iron sucrose (group 2), or oral iron alone (group 3), daily for 4 days beginning 48-72 h postpartum. Erythropoiesis and iron status were assessed before, and on 4, 7 and 14 days after, starting therapy.
                On day 7 the group 1 haematocrit increase was 7.7 +/- 3.1% vs. 5.3 +/- 1.9% (group 2, P < 0.01) and 4.4 +/- 3.2% (group 3, P < 0.01), and on day 14, 11.3 +/- 2.9% vs. 9.2 +/- 3.4% (group 2, P < 0.05) and 8 +/- 2.8% (group 3, P < 0.01). The odds of achieving a target haematocrit > 32% on day 7 and > 35% on day 14 were higher on rhEPO (1.5-2.7) than on either iron regimen alone. Group 1 reticulocyte counts were also higher on days 4 (P < 0.05 vs. oral iron) and 7 (P < 0.01 vs. oral and parenteral iron).
                All three regimens were effective in postpartum anaemia, but the haematocrit and reticulocyte responses to rhEPO plus parenteral iron were significantly greater than to iron alone. Benefit was greatest in the blunted erythropoiesis subgroup with elevated post-Caesarean section C-reactive protein levels. Two hundred Hausa primigravidae at Zaria were divided into five groups in a randomized double-blind trial of antenatal oral antimalarial prophylaxis, and haematinic supplements. Group 1 received no active treatment. Groups 2 to 5 were given chloroquine 600 mg base once, followed by proguanil 100 mg per day. In addition, group 3 received iron 60 mg daily, group 4 folic acid 1 mg daily, and group 5 iron plus folic acid. Forty-five percent were anaemic (haemoglobin (Hb) less than 11.0 g dl-1) at first attendance before 24 weeks of gestation, and malaria parasitaemia (predominantly Plasmodium falciparum) was seen in 27%, of whom 60% were anaemic. The mean Hb fell during pregnancy in group 1, and seven patients in this group had to be removed from the trial and treated for severe anaemia (packed cell volume (PCV) less than 0.26). Only five patients in the other groups developed severe anaemia (P = 0.006), two of whom had malaria following failure to take treatment. Patients in group 1 had the lowest mean Hb at 28 and 36 weeks of gestation, and patients receiving antimalarials and iron (groups 3 and 5) had the highest Hb at 28 weeks, but differences were not significant, possibly due to removal from the trial of patients with severe anaemia. Anaemia (Hb less than 12.0 g dl-1) at six weeks after delivery was observed in 61% of those not receiving active treatment (group 1), in 39% of those protected against malaria but not receiving iron supplements (groups 2 and 4) and in only 18% of patients receiving both antimalarials and iron (groups 3 and 5). Folic acid had no significant effect on mean Hb. Proguanil was confirmed to be a highly effective causal prophylaxis. Prevention of malaria, without folic acid supplements, reduced the frequency of megaloblastic erythropoiesis from 56% to 25%. Folic acid supplements abolished megaloblastosis, except in three patients who were apparently not taking the treatment prescribed. Red cell folate (RCF) concentrations were higher in subjects with malaria, probably due to intracellular synthesis by plasmodia. Infants of mothers not receiving antimalarials appeared to have an erythroid hyperplasia. Maternal folate supplements raised infants' serum folate and RCF. Fourteen per cent had low birth weight (less than 2500 g), and the perinatal death rate was 11%; the greatest number were in group 1, but not significantly. A regime is proposed for the prevention of malaria, iron deficiency, folate deficiency and anaemia in pregnancy in the guinea savanna of Nigeria. Correction of anaemia as a result of renal failure improves cardiovascular function and also provides significant cognitive and emotional benefits. The most appropriate route for iron supplementation has not been determined for patients with chronic renal failure who are not yet on dialysis.
                Forty-five anaemic patients with progressive renal insufficiency (PRI) were prospectively randomized to receive oral (ferrous sulphate 200 mg tds) or intravenous (300 mg iron sucrose monthly) iron treatment. Erythropoietin (rHuEpo) was simultaneously commenced and the dose adjusted according to a pre-established protocol.
                There were no significant differences in baseline patient characteristics between the two groups. The average follow-up was 5.2 months. Three patients suffered possible allergic reactions to iron sucrose. Haemoglobin response and changes in red cell hypochromasia were similar in the two groups, but serum ferritin was significantly higher in the intravenous group. The starting dose of rHuEpo could be temporarily discontinued in 43% of patients on oral iron and 33% of patients receiving iron sucrose (NS). rHuEpo was increased after 3 months in 9% of patients on oral iron and 19% of patients receiving iron sucrose (NS). Final doses of rHuEpo were 33.5 (0-66) and 41.6 (0-124) U/kg/week respectively in the oral and intravenous groups (NS). Although gastro-intestinal symptoms were more commonly reported in patients taking oral iron, these were mild according to scores on visual analogue scales. Dietary protein and energy intake were not significantly different in the two groups at 0, 3 and 6 months.
                In pre-dialysis patients, the efficacy of monthly 300 mg iron sucrose given intravenously is not superior with regard to haemoglobin response and rHuEpo dose as compared with a daily oral dose of 600 mg of ferrous sulphate or equivalent. Where intravenous iron is preferred, lower doses may help to reduce the incidence of allergic or "free iron" reactions, especially in patients with low body mass. The authors compared the effect of recombinant human erythropoietin (rhEPO) in combination with iron with that of iron therapy only in the treatment of postpartum anaemia. Ninety patients (30 patients/group) received either rhEPO (300 U kg-1, i.v. or s.c., once) and iron (parenteral and oral), or iron therapy only. Erythropoiesis was assessed by haemoglobin and haematocrit increase, absolute reticulocyte counting and reticulocyte flow cytometry. Ferrokinetics was assessed by serum ferritin, transferrin and transferrin saturation measurements. There was no difference before therapy for baseline haematological values or iron status. Patients with endogenous EPO levels below 145 mU mL-1 had a significant benefit from intravenous rhEPO administration with highest haematocrit and haemoglobin levels 4 and 14 days after therapy. rhEPO-treated groups showed a higher absolute reticulocyte count 1 and 4 days after therapy and an elevated percentage of high fluorescent reticulocytes (HFRs). Parenteral iron therapy caused a significant increase of ferritin and transferrin saturation, while transferrin concentration decreased. Ferritin and transferrin levels were lowest after i.v. administration of rhEPO, 1 and 4 days after therapy. C-reactive protein concentration was highest in patients who underwent caesarean section until the end of the observation period. A single dose of rhEPO in combination with iron was more effective in treating postpartum anaemia than iron therapy only, in patients who had low EPO levels despite peripartal blood loss. Postpartum low endogenous EPO levels might be a consequence of inhibiting inflammatory cytokines that are released after spontaneous or operative deliveries. In a double-blind, randomised study we treated 36 women in the puerperium with haemoglobin concentration below 9 g/dl with 400 mg Fe . 20 women received 20,000 IE erythropoietin (rHuEPO) i.v. in addition, 12 women received placebos. In both groups there were no differences in the haematological and iron parameters in the first 4 weeks after delivery. The results show that the additional therapy with rHuEPO in postpartum anaemia is not justified. The limiting factor in a quick correction of the postpartum anaemia is the insufficient presence of iron at the end of pregnancy. The therapy of choice for quick and safe correction of p.p. anaemia is the effective intravenous iron supplementation. A comparative study was conducted to demonstrate the difference, if any, in effectiveness of treatment of iron deficiency anaemia in pregnancy with either iron dextran or ferrous sulphate. Sixty pregnant women with iron deficiency anaemia were assigned randomly to either group and treated for 6 weeks. The age and parity distributions with mean packed cell volumes (PCVs) and gestational age at onset of treatment in the two groups were comparable. Comparing the mean PCVs at week 2, week 4 and week 6 of treatment the iron dextran group recorded higher and statistically significant mean PCVs (P<0.001). Thirty-six per cent of patients in the iron dextran group compared to 3.3% in the oral iron group (P=0.004) had their anaemia corrected by the sixth week. No significant side effects accompanied the use of intramuscular iron dextran. It was concluded that iron dextran corrects iron deficiency anaemia faster than ferrous sulphate. Parenteral iron should be considered in pregnant woman with moderate and asymptomatic severe anaemia between gestation ages of 28 weeks and 34 weeks; this may reduce the frequency of blood transfusion both in the antenatal and postnatal periods in these patients. The present investigation was undertaken to assess the efficacy of oral iron supplementation during pregnancy by using a gastric delivery system (GDS). Three hundred seventy-six pregnant women between 16 and 35 y of age and 14 and 22 wk gestation were selected if mild anemia was present (hemoglobin concentration 80-110 g/L). The participants were randomly assigned to one of three study groups given no iron, two FeSO4 tablets (100 mg Fe) daily, or one GDS capsule (50 mg Fe) daily. Blood was obtained initially and after 6 and 12 wk for measurement of red blood cell and iron indexes, including serum transferrin receptor. There was a significant and comparable improvement in hematologic and iron-status measurements in the two groups of women given iron whereas iron deficiency evolved in women given no iron supplement. We conclude that by eliminating gastrointestinal side effects and reducing the administration frequency of an iron supplement to once daily, a GDS offers significant advantages for iron supplementation of pregnant women. To compare the effect of daily versus weekly iron supplementation on lipid peroxidation, hemoglobin levels and maternal and perinatal outcome in non-anemic pregnant women.
                Of 109 women randomly allocated into three groups, 90 completed the study. Group I (n = 30) received daily iron folic acid; Group II (n = 30) received weekly iron folic acid; Group III (n = 30) received daily iron (III)-hydroxide polymaltose complex. Hemoglobin levels, hematological indices, thiobarbituric acid reactive substances (TBARS) and glutathione levels were measured at baseline (14-16 weeks) and at 30-34 weeks. Statistical analysis was done using the anova test.
                Group I had a highly significant increase in TBARS level (0.61 +/- 0.26 micromol/L, P = 0.000) compared to groups II and III in which the change in TBARS was not significant (0.02 +/- 0.06 and 0.007 +/- 0.06 micromol/L, respectively). There was an insignificant fall in glutathione levels in all groups. There was no significant difference in the mean period of gestation, pregnancy complications and neonatal outcome between the three groups. Among 22.2% of women who were non-compliant, Group I had significantly higher incidence of non-compliance (P = 0.016) and side-effects (P = 0.001). Final hemoglobin was higher in Group I than II (11.9 +/- 1.2, 11.3 +/- 0.9, respectively, P = 0.041). The TBARS level was not statistically different between preterm and term deliveries. Nine out of 11 patients who developed hypertension during pregnancy had preeclampsia. The final TBARS level was significantly higher in these women (P = 0.000).
                Daily supplementation with ferrous sulphate results in greater lipid peroxidation than weekly supplementation, the latter is comparable with daily iron (III)-hydroxide polymaltose complex. Lipid peroxidation levels are significantly higher in preeclampsia. Pregnancy is a condition exhibiting increased susceptibility to oxidative stress, and Fe plays a central role in generating harmful oxygen species. The objective of the present study is to investigate the changes in haematological status, oxidative stress and erythrocyte membrane fluidity in anaemic pregnant women after Fe supplementation with and without combined vitamins. The study was a 2 months double-blind, randomised trial. Pregnant women (n 164) were allocated to four groups: group C was the placebo control group; group I was supplemented daily with 60 mg Fe (ferrous sulphate) daily; group IF was supplemented daily with Fe plus 400 μg folic acid; group IM was supplemented daily with Fe plus 2 mg retinol and 1 mg riboflavin, respectively. After the 2-month trial, Hb significantly increased by 15.8, 17.3 and 21.8 g/l, and ferritin by 2.8, 3.6 and 11.0 μg/l, in the I, IF and IM groups compared with placebo. Polarisation (ρ) and microviscosity (η) decreased significantly in other groups compared with placebo, indicating an increase in membrane fluidity. Significant decreases of ρ and η values compared with group C were 0.033 and 0.959 for group I, 0.037 and 1.074 for group IF and 0.064 and 1.865 for group IM, respectively. In addition, significant increases of glutathione peroxidase activities and decreases of malondialdehyde were shown in all treated groups, as well as increases of plasma retinol and urine riboflavin in group IM. The findings show that supplementation with Fe and particularly in combination with vitamins could improve the haematological status as well as oxidative stress and erythrocyte membrane fluidity. Previous work at this hospital and elsewhere has shown that anaemia in toddlers is common and is associated with psychomotor delay. It seemed unclear, however, whether this association was cause and effect or merely due to the same underprivileged environment. A double blind randomised intervention study was, therefore, performed. After an initial assessment 97 children with anaemia (haemoglobin 8-11 g/dl) aged 17-19 months received either iron and vitamin C or vitamin C only (control group) for two months and were then reassessed. The children who received the iron had an increased rate of weight gain and more of them achieved the expected rate of development. While iron deficiency anaemia is unlikely to be the only factor in the slower development of children living in underprivileged circumstances, it can at least be easily identified and treated. Routine child health surveillance in such areas should include a haemoglobin determination. Renal anemia is one of the commonest complications of chronic renal failure. Iron deficiency is the most common factor which affects the efficacy of recombinant human erythropoietin (EPO) therapy. Intravenous (i.v.) iron preparations are commonly used in Western countries, but iron sucrose is seldom used in Chinese patients on maintenance hemodialysis. The aim of the present study was to explore the safety and efficacy of i.v. iron sucrose in Chinese patients on maintenance hemodialysis and to explore the optimal administration frequency.
                One hundred and thirty-six patients on maintenance hemodialysis were involved in this randomized, controlled, parallel-group, single-center trial. Seventy patients received i.v. iron sucrose (Venofer(R), delivering 100 mg iron) twice a week for 8 weeks, then once a week for another 4 weeks. The other 66 patients received oral (p.o.) ferrous succinate 200 mg t.i.d. for 12 weeks. Levels of serum ferritin (SF), transferrin saturation (TSAT), hemoglobin (Hb) and hematocrit (Hct) were assessed at baseline and then again after 4, 8 and 12 weeks of treatment.
                There were no differences between i.v. and p.o. groups in terms of sex, age, duration of hemodialysis, dialysis frequency per week, EPO dosage per week, the level of intact parathyroid hormone, serum creatinine, blood urea nitrogen, or hematological parameters at baseline. After 8 and 12 weeks of treatment, mean Hb concentration and Hct were significantly increased in the i.v. group, and were also significantly higher than those in the p.o. group. Levels of SF and TSAT were also significantly increased in the i.v. group, and significantly higher than in the p.o. group. After 8 weeks, the response rate in the i.v. group was 88.6%, which was significantly higher than that in the p.o. group. The mean EPO dose was significantly lower in the i.v. group than the p.o. group. Hb, Hct, SF and TSAT levels were maintained between 8 and 12 weeks in the i.v. group despite the decrease in dose frequency. There were no adverse events related to i.v. iron administration. Twenty-two patients in the p.o. group had adverse gastrointestinal effects. After 12 weeks, the cost of EPO + i.v. iron was significantly higher than the cost of EPO + p.o. iron.
                Intravenous iron sucrose can effectively increase serum iron parameters and Hb levels in Chinese patients on maintenance hemodialysis and is well tolerated. Infusion of i.v. iron sucrose 100 mg per week can maintain serum iron parameters and Hb levels in Chinese patients on maintenance hemodialysis and can permit reductions in the required dose of EPO. However, the total cost of i.v. iron is relatively high.
                Copyright 2008 S. Karger AG, Basel.
Despite the high incidence and burden of disease associated with this condition, there is a paucity of good quality trials assessing clinical maternal and neonatal effects of iron administration in women with anaemia. Daily oral iron treatment improves haematological indices but causes frequent gastrointestinal adverse effects. Parenteral (intramuscular and intravenous) iron enhances haematological response, compared with oral iron, but there are concerns about possible important adverse effects (for intravenous treatment venous thrombosis and allergic reactions and for intramuscular treatment important pain, discolouration and allergic reactions). Large, good quality trials, assessing clinical outcomes (including adverse effects) as well as the effects of treatment by severity of anaemia are required.