Iron deficiency and its management in patients undergoing lipoprotein apheresis. Comparison of two parenteral iron formulations

2013 ◽  
Vol 14 (1) ◽  
pp. 115-122 ◽  
Author(s):  
U. Schatz ◽  
B. Arneth ◽  
G. Siegert ◽  
D. Siegels ◽  
S. Fischer ◽  
...  
Author(s):  
Kirtan Krishna ◽  
Achint Krishna ◽  
Divya Teja G. N.

Background: Postpartum iron deficiency anemia is common in India as a consequence of postpartum hemorrhage.  Recent studies have evaluated the use of parenteral iron as a better tolerated treatment modality. Compared with oral iron supplements, parenteral iron is associated with a rapid rise in serum ferritin and hemoglobin and improved maternal fatigue scores in the postpartum period.  Parenteral iron may be considered for the treatment of postpartum anemia. The objective of the study was to evaluate the efficacy, safety, and tolerability of intravenous ferric carboxymaltose, in women with postpartum anemia.Methods: A clinical observational study was undertaken in a tertiary care hospital,  50 women within six weeks of delivery with Hb ≥6 gm/dl and ≤10 gm/dl received 1000 mg/week,  over 15 minutes or less, repeated weekly to a calculated replacement dose (maximum 2500 mg) . Hemoglobin and serum ferritin levels were recorded prior to treatment and on day 21 after completion of treatment.Results: Ferric carboxymaltose-treated subjects achieved a hemoglobin greater than 12 gm/dL in a short time period (21 days), achieve a hemoglobin rise of ≥3 gm/dL more quickly, and attain higher serum ferritin levels. It is also associated with better patient compliance, and shorter treatment period. Drug-related adverse events occurred less frequently with ferric carboxymaltose. The only noted disadvantage was that it is more expensive when compared to other iron preperations.Conclusions: Intravenous ferric carboxymaltose was safe and well tolerated with good efficacy and better patient compliance in the treatment of postpartum iron deficiency anemia.


Blood ◽  
2019 ◽  
Vol 134 (Supplement_1) ◽  
pp. 2235-2235
Author(s):  
Elisa Brilli ◽  
Michela Asperti ◽  
Annalisa Castagna ◽  
Claudio Cerchione ◽  
Domenico Girelli ◽  
...  

Introduction: Iron Refractory Iron Deficiency Anemia (IRIDA) is an autosomal recessive iron metabolism disorder caused by mutations in Tmprss6 gene which encodes for Matriptase2 (MT2) that, by activating hemojuvelin (HJV), regulates the production of hepcidin, the master iron regulatory hormone. Altered MT2 cannot suppress hepatic BMP6/SMAD signaling in low iron condition, hence the resulting hepcidin excess blocks dietary iron absorption and cells release, leading to a form of iron deficiency that is typically refractory to oral iron supplementation. IRIDA is characterized by moderate/severe microcytic anemia (Hemoglobin 6-9 g/dL; MCV 45-65 fL); low transferrin saturation (<5%); impaired oral iron absorption and only a transient response to parenteral iron. Nonetheless, the current treatment is mainly based on parenteral iron therapy. A case study on a child with IRIDA showed for the first time the ability of Sucrosomial® Iron, to increase hemoglobin and MCV values over time (Capra et al., 2017). This oral iron formulation is an innovative preparation of ferric pyrophosphate, covered by a phospholipids plus sucrester matrix, with gastro-resistance properties, high bioavailability and tolerability due to alternative absorption pathways as endocytosis and M cells mediated route (Gomez-Ramirez et al., 2018). Moreover, Sucrosomial® Iron has been successfully used to treat iron deficiency in various clinical conditions, including inflammatory bowel diseases (Abbati et al., 2019). To confirm and characterize the ability of Sucrosomial® Iron to increase Hb in IRIDA disease we studied the response to Sucrosomial® Iron in a IRIDA mouse model (Mask) comparing the efficacy of Sucrosomial® Iron and Sulfate Iron at two different doses and in chronic treatment. Aim: to study Sucrosomial® Iron effect in IRIDA using the Tmprss6 knock-out mouse model Material and Methods: m/m homozygous mice (9-weeks old male mice, four mice per experimental group) were kept at iron balance diet and treated with 0.5 or 4 mg/Kg of Ferrous sulfate, Sucrosomial® Iron (patent n° PCT/IB2013/001659 owned by Alesco s.r.l, Italy), or vehicle by gavage for 35 days. Four 9-weeks old m/- male mice per experimental group were daily treated and Hb and Ht were monitored weekly. Mice were sacrificed at the end of treatments; blood, and different organs were collected for analysis. Total RNA was isolated from tissues using TRIzol Reagent (Ambion), cDNA was generated by Reverse transcription (Promega, Milan, Italy) and samples were analyzed for Hepcidin and Socs3 mRNA levels by qRT-PCR using PowerUp SYBR Green Master Mix (Life Technologies). Results: we analyzed the iron status of anemic homozygous Mask mice from 3 to 35 weeks of age by studying serological and tissue iron content. Interestingly only Sucrosomial® Iron (not Ferrous Sulfate), increased hemoglobin level from 11-12 to 13-14 g/dL in the first week with a tendency to increase until the fourth week, when it stabilized at 13 g/dL (Figure 1A-B). Serum iron concentration was higher in the Sucrosomial® Iron treated animals than in those treated with vehicle, while was lower in the Ferrous sulfate treated animals. Similar pattern was observed for spleen iron content that increased in mice treated with Sucrosomial® Iron but not in those receiving Ferrous sulfate. Liver iron concentration did not apparently varied after the treatments, but duodenal iron increased significantly only in the mice treated with the higher dose of Ferrous sulfate (Figure 1 C-F). Interestingly, we found that the mice treated with both doses of Ferrous sulfate, but not those treated with Sucrosomial® Iron, had a higher mRNA levels of hepcidin and of the inflammatory marker Socs3 (Figure 1 G-H). Conclusion: this study showed for the first time that Sucrosomial® Iron is able to increase hemoglobin level in a mouse model of IRIDA, probably due to its alternative absorption pathway. Sucrosomial® Iron could be used as effective iron supplement to improve iron status in IRIDA patients. Disclosures Girelli: La Jolla Pharmaceuticals: Membership on an entity's Board of Directors or advisory committees; Novartis: Consultancy; Vifor Pharma: Other: honoraria for lectures; Silence Therapeutics: Membership on an entity's Board of Directors or advisory committees.


PEDIATRICS ◽  
1983 ◽  
Vol 71 (6) ◽  
pp. 877-880 ◽  
Author(s):  
Frank A. Oski ◽  
Alice S. Honig ◽  
Brenda Helu ◽  
Peter Howanitz

In an effort to determine whether iron deficiency, in the absence of anemia (hemoglobin &gt;11.0 g/dL), might produce alterations in behavioral development, four groups of nonanemic infants, 9 to 12 months of age, with varying degrees of iron deficiency were studied. Infants were classified as iron sufficient, iron depleted, or iron deficient based on measurements of serum ferritin concentration, erythrocyte protoporphyrin values, and the mean cell volume of erythrocytes. Subjects in each group were tested with the Bayley Mental Development Index, treated with parenteral iron, and retested seven days later. The administration of iron produced a significant increase in the Mental Development Index scores (+21.6 points) in the infants with iron deficiency but no significant change in the scores of infants with iron sufficiency (+6.2 points) or only iron depletion (+5.6 points). It is concluded that iron deficiency, even in the absence of anemia, results in biochemical alterations that impair behavior in infants.


Author(s):  
Patrick Viet-Quoc Nguyen ◽  
Judith Latour

<p><strong>ABSTRACT</strong></p><p><strong>Background: </strong>Anemia is a common health issue for elderly patients. For patients with iron deficiency who cannot tolerate iron supplementation by the oral route, the parenteral route may be used. Options for parenteral iron supplementation include ferric gluconate complex (FGC).</p><p><strong>Objectives: </strong>To evaluate the safety of FGC in elderly patients without terminal kidney failure and to assess its efficacy in treating iron-deficiency anemia.</p><p><strong>Methods: </strong>An observational chart review was conducted at a tertiary care university health centre. Patients included in the study were 65 years of age or older, had received at least 1 dose of FGC between January 1, 2014, and December 31, 2015, and had a hemoglobin count of less than 130 g/L (men) or less than 120 g/L (women) at baseline. For each patient, the observation period began when the first dose of FGC was administered and ended 60 days after the last dose. The main safety outcome (occurrence of any adverse reaction) was evaluated for every patient, with the efficacy analysis being limited to patients with a diagnosis of iron deficiency anemia.</p><p><strong>Results: </strong>A total of 144 patients were included in the study, of whom 76 had iron-deficiency anemia. No serious, life-threatening adverse reactions were reported. The most commonly reported adverse reactions were nausea and vomiting. The mean increase in hemoglobin count was 13.5 g/L, a statistically significant change from baseline.</p><p><strong>Conclusions: </strong>These results show that FGC is safe for use in elderly patients, with very few mild adverse reactions. Use of FGC led to increased hemoglobin count within 60 days. Of the 3 options for parenteral iron supplementation available in Canada, iron sucrose has not been studied in elderly patients, and iron dextran has a higher incidence of anaphylaxis, whereas FGC appears to be a safe alternative for patients with intolerance to oral iron.</p><p><strong>RÉSUMÉ</strong></p><p><strong>Contexte : </strong>L’anémie est un problème de santé courant chez les patients âgés. Les patients qui présentent une carence en fer et une intolérance à la prise de suppléments de fer par la voie orale peuvent être traités par voie parentérale. Le complexe de gluconate ferrique de sodium (CGFS) représente l’une des options d’apport complémentaire en fer par voie parentérale.</p><p><strong>Objectifs : </strong>Évaluer l’innocuité du CGFS chez le patient âgé qui n’est pas atteint d’insuffisance rénale terminale et évaluer son efficacité dans le traitement de l’anémie ferriprive.</p><p><strong>Méthodes : </strong>Une analyse observationnelle a été menée au moyen des dossiers médicaux dans un établissement de santé universitaire de soins tertiaires. Les patients dont le dossier médical a été retenu pour l’analyse étaient âgés de 65 ans ou plus, avaient reçu au moins une dose de CGFS entre le 1er janvier 2014 et le 31 décembre 2015 et présentaient initialement un taux d’hémoglobine de moins de 130 g/L (hommes) ou de moins de 120 g/L (femmes). Pour chaque patient, la période d’observation s’étendait du moment où la première dose de CGFS avait été administrée au soixantième jour suivant la dernière dose. Le principal paramètre d’évaluation de l’innocuité (survenue de toute reaction indésirable) faisait l’objet d’une évaluation pour chaque patient. L’analyse de l’efficacité se limitait aux patients ayant reçu un diagnostic d’anémie ferriprive.</p><p><strong>Résultats : </strong>Au total, 144 patients ont été admis à l’étude et, parmi eux, 76 présentaient une anémie ferriprive. Aucune réaction indésirable grave menaçant la vie du patient n’a été notée. Les réactions indésirables les plus souvent signalées étaient des nausées et des vomissements. L’augmentation moyenne des taux d’hémoglobine était de 13,5 g/L, un changement statistiquement significatif comparé à la valeur de départ.</p><p><strong>Conclusions : </strong>Les résultats montrent que le CGFS est sécuritaire pour le patient âgé et qu’il ne provoque que très peu de réactions indésirables légères. L’emploi du CGFS a produit une augmentation des taux d’hémoglobine en moins de 60 jours. Parmi les 3 options d’apport complémentaire en fer pris par voie parentérale disponibles au Canada, le fer-saccharose n’a pas été étudié auprès de patients âgés et le fer-dextran est associé à une plus grande incidence de cas d’anaphylaxie; or, le CGFS semble être une solution sécuritaire pour les patients qui présentent une intolérance au fer administré par voie orale.</p>


1992 ◽  
Vol 29 (5) ◽  
pp. 400-404 ◽  
Author(s):  
D. E. Morin ◽  
F. B. Garry ◽  
M. G. Weiser ◽  
M. J. Fettman ◽  
L. W. Johnson

Iron deficiency anemia was identified and characterized in three 14 to 29-month-old male llamas (llama Nos. 1–3) from separate herds in Colorado. The identification of iron deficiency anemia was based on hypoferremia (serum iron = 20–60 μg/dl), erythrocytic features, and hematologic response to iron therapy. The anemia was moderate and nonregenerative and characterized by erythrocyte hypochromia, microcytosis (mean cell volume = 15–18 fl), and decreased mean corpuscular hemoglobin concentration (36.0–41.0 g/dl). Morphologic features unique to llamas with iron deficiency anemia included irregular distribution of hypochromia within erythrocytes and increased folded cells and dacryocytes. The cause of iron deficiency was not determined. The llamas were treated with various doses and schedules of parenteral iron dextran. Two of the llamas were monitored for up to 14 months after the start of iron therapy and experienced increases in hematocrit and mean cell volume values. In one llama, progressive replacement of microcytic cells with normal cells was visualized on sequential erythrocyte volume distribution histograms following iron therapy.


2002 ◽  
Vol 81 (3) ◽  
pp. 154-157 ◽  
Author(s):  
G. Surico ◽  
P. Muggeo ◽  
V. Muggeo ◽  
A. Lucarelli ◽  
T. Martucci ◽  
...  

Blood ◽  
2007 ◽  
Vol 110 (11) ◽  
pp. 959-959
Author(s):  
Seema Varma ◽  
Walid Baz ◽  
Edgar Badine ◽  
Terenig Terjanian ◽  
Frank Forte ◽  
...  

Abstract Background: Malabsorptive bariatric procedures such as Roux-en-Y gastric bypass (REY) and biliopancreatic diversion/duodenal switch (BPD/DS) expose the patient to significant metabolic effects, most commonly iron deficiency. Optimal replacement and monitoring strategies remain undetermined. Further, there are no data regarding parenteral iron replacement after bariatric surgery. We evaluated bariatric surgery patients who received parenteral iron replacement therapy at our hematology center. Methods: We performed a retrospective cohort analysis and reviewed the medical records of 165 patients who received parenteral iron from 5/04 to 6/07. 42 bariatric surgery patients were identified. The type of bariatric procedure and menstrual status of patients were compared. ANOVA, Chi-square and t-tests were used for statistical analysis. Results: The average age for the groups was similar; 40 years. There were only 2 men (4.76%) and 40 women, 32 (76%) of whom were of menstrual age and 8 (24%) were post-menopausal. 8 women were found to have other factors contributing to the anemia (7 with menorrhagia and 1 with celiac disease). Roux-en-Y gastric bypass (REY) versus biliopancreatic diversion/duodenal switch (BPD/DS) and menstruating women versus men and postmenopausal women All Patients n=42 Roux-en-Y n=23 Bilio-pancreatic diversion/Duodenal switch n=17 p value Menstrual women n=24 Men and post-menopausal women n=10 p value *p value significant. Mean hemoglobin gm/dl 8.1(95% CI 7.738–8.638) 8.5 7.5 0.02 * 7.8 8.4 0.26 Mean ferritin level ng/ml 5.4(95% CI 3.3–7.5) 6.2 3.9 0.33 4.13 7.77 0.2106 Median time to parenteral iron therapy 42.5months 48 months 43 months 0.32 37.5 months 54 months 0.008* Need for additional parenteral iron treatments 24/42(57%) 11/23(47%) 13/17 (76.4%) 0.001* 15/24(62.5%) 7/10(70%) 0.062 Number of anemia-related hospitalizations 14/42 (33.3%) 4/23 (17.39%) 10/17(58.8%) 0.01* 12/24(50%) 2/10(20%) 0.00033* Patients in the BPD/DS group had significantly lower hemoglobins (p=0.02) at the time of presentation, lower ferritin levels, and required subsequent parenteral iron treatments after initial resolution of anemia (p=0.001). The above parameters were not influenced by menstrual status. The number of anemia related hospitalizations was significantly higher in menstrual women (p=0.00033) and also in the BPD/DS group. Also, menstrual women required parenteral iron replacement earlier than men or postmenopausal women (p=0.008). Conclusion: A considerable number of patients develop severe, symptomatic iron deficiency anemia within 1–4 years after bariatric surgery and need parenteral iron replacement after oral iron therapy has failed. Malabsorption plays a significant role in the development of iron deficiency, and the greater the degree of malabsorption resulting from the bariatric procedure the more the likelihood of recurrence of iron deficiency. Menstrual women are at a higher risk due to continual iron losses and tend to require intravenous replacement earlier. Bariatric surgery patients who do not respond to oral iron therapy should be referred early for parenteral iron replacement, especially after malabsorptive procedures, particularly in women of child-bearing age. In order to maintain quality of life and prevent anemia related complications, close monitoring and early iron replacement are crucial, and the follow-up should be indefinite even after repletion of iron stores and resolution of anemia.


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