Literature DB >> 31899794

Antibodies against the erythroferrone N-terminal domain prevent hepcidin suppression and ameliorate murine thalassemia.

João Arezes1, Niall Foy2, Kirsty McHugh3, Doris Quinkert3, Susan Benard4, Anagha Sawant5, Joe N Frost1, Andrew E Armitage1, Sant-Rayn Pasricha1,6,7, Pei Jin Lim1, May S Tam5, Edward Lavallie5, Debra D Pittman5, Orla Cunningham2, Matthew Lambert2, John E Murphy5, Simon J Draper3, Reema Jasuja5, Hal Drakesmith1,8.   

Abstract

Erythroferrone (ERFE) is produced by erythroblasts in response to erythropoietin (EPO) and acts in the liver to prevent hepcidin stimulation by BMP6. Hepcidin suppression allows for the mobilization of iron to the bone marrow for the production of red blood cells. Aberrantly high circulating ERFE in conditions of stress erythropoiesis, such as in patients with β-thalassemia, promotes the tissue iron accumulation that substantially contributes to morbidity in these patients. Here we developed antibodies against ERFE to prevent hepcidin suppression and to correct the iron loading phenotype in a mouse model of β-thalassemia [Hbb(th3/+) mice] and used these antibodies as tools to further characterize ERFE's mechanism of action. We show that ERFE binds to BMP6 with nanomolar affinity and binds BMP2 and BMP4 with somewhat weaker affinities. We found that BMP6 binds the N-terminal domain of ERFE, and a polypeptide derived from the N terminus of ERFE was sufficient to cause hepcidin suppression in Huh7 hepatoma cells and in wild-type mice. Anti-ERFE antibodies targeting the N-terminal domain prevented hepcidin suppression in ERFE-treated Huh7 cells and in EPO-treated mice. Finally, we observed a decrease in splenomegaly and serum and liver iron in anti-ERFE-treated Hbb(th3/+) mice, accompanied by an increase in red blood cells and hemoglobin and a decrease in reticulocyte counts. In summary, we show that ERFE binds BMP6 directly and with high affinity, and that antibodies targeting the N-terminal domain of ERFE that prevent ERFE-BMP6 interactions constitute a potential therapeutic tool for iron loading anemias.
© 2020 by The American Society of Hematology.

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Year:  2020        PMID: 31899794      PMCID: PMC7046598          DOI: 10.1182/blood.2019003140

Source DB:  PubMed          Journal:  Blood        ISSN: 0006-4971            Impact factor:   25.476


  49 in total

1.  Decreased hepcidin mRNA expression in thalassemic mice.

Authors:  Konstantin Adamsky; Orly Weizer; Ninette Amariglio; Laura Breda; Alon Harmelin; Stefano Rivella; Eliezer Rachmilewitz; Gideon Rechavi
Journal:  Br J Haematol       Date:  2004-01       Impact factor: 6.998

2.  Treating iron overload.

Authors:  Clara Camaschella
Journal:  N Engl J Med       Date:  2013-06-13       Impact factor: 91.245

3.  Erythroferrone and matriptase-2 independently regulate hepcidin expression.

Authors:  Sharraya Aschemeyer; Victoria Gabayan; Tomas Ganz; Elizabeta Nemeth; Léon Kautz
Journal:  Am J Hematol       Date:  2017-02-24       Impact factor: 10.047

4.  Bone morphogenetic protein 2 controls iron homeostasis in mice independent of Bmp6.

Authors:  Susanna Canali; Chia-Yu Wang; Kimberly B Zumbrennen-Bullough; Abraham Bayer; Jodie L Babitt
Journal:  Am J Hematol       Date:  2017-09-25       Impact factor: 10.047

5.  Engineering a monomeric Fc domain modality by N-glycosylation for the half-life extension of biotherapeutics.

Authors:  Tetsuya Ishino; Mengmeng Wang; Lidia Mosyak; Amy Tam; Weili Duan; Kristine Svenson; Alison Joyce; Denise M O'Hara; Laura Lin; William S Somers; Ronald Kriz
Journal:  J Biol Chem       Date:  2013-04-24       Impact factor: 5.157

6.  High levels of GDF15 in thalassemia suppress expression of the iron regulatory protein hepcidin.

Authors:  Toshihiko Tanno; Natarajan V Bhanu; Patricia A Oneal; Sung-Ho Goh; Pamela Staker; Y Terry Lee; John W Moroney; Christopher H Reed; Naomi L C Luban; Rui-Hong Wang; Thomas E Eling; Richard Childs; Tomas Ganz; Susan F Leitman; Suthat Fucharoen; Jeffery L Miller
Journal:  Nat Med       Date:  2007-08-26       Impact factor: 53.440

7.  Exogenous BMP7 corrects plasma iron overload and bone loss in Bmp6-/- mice.

Authors:  Martina Pauk; Lovorka Grgurevic; Jelena Brkljacic; Vera Kufner; Tatjana Bordukalo-Niksic; Kristina Grabusic; Genadij Razdorov; Dunja Rogic; Marijan Zuvic; Hermann Oppermann; Jodie L Babitt; Herbert Y Lin; Sinisa Volarevic; Slobodan Vukicevic
Journal:  Int Orthop       Date:  2014-10-11       Impact factor: 3.075

8.  Lack of the bone morphogenetic protein BMP6 induces massive iron overload.

Authors:  Delphine Meynard; Léon Kautz; Valérie Darnaud; François Canonne-Hergaux; Hélène Coppin; Marie-Paule Roth
Journal:  Nat Genet       Date:  2009-03-01       Impact factor: 38.330

9.  Transferrin receptor 2 controls bone mass and pathological bone formation via BMP and Wnt signaling.

Authors:  Martina Rauner; Ulrike Baschant; Antonella Roetto; Rosa Maria Pellegrino; Sandra Rother; Juliane Salbach-Hirsch; Heike Weidner; Vera Hintze; Graeme Campbell; Andreas Petzold; Regis Lemaitre; Ian Henry; Teresita Bellido; Igor Theurl; Sandro Altamura; Silvia Colucci; Martina U Muckenthaler; Georg Schett; Davide Komla Ebri; J H Duncan Bassett; Graham R Williams; Uwe Platzbecker; Lorenz C Hofbauer
Journal:  Nat Metab       Date:  2019-01-07

10.  Identification of erythroferrone as an erythroid regulator of iron metabolism.

Authors:  Léon Kautz; Grace Jung; Erika V Valore; Stefano Rivella; Elizabeta Nemeth; Tomas Ganz
Journal:  Nat Genet       Date:  2014-06-01       Impact factor: 38.330

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  17 in total

1.  Protein Modifications Critical for Myonectin/Erythroferrone Secretion and Oligomer Assembly.

Authors:  Ashley N Stewart; Hannah C Little; David J Clark; Hui Zhang; G William Wong
Journal:  Biochemistry       Date:  2020-07-06       Impact factor: 3.162

Review 2.  β-Thalassemia: evolving treatment options beyond transfusion and iron chelation.

Authors:  Arielle L Langer; Erica B Esrick
Journal:  Hematology Am Soc Hematol Educ Program       Date:  2021-12-10

3.  Erythroid overproduction of erythroferrone causes iron overload and developmental abnormalities in mice.

Authors:  Richard Coffey; Grace Jung; Joseph D Olivera; Gabriel Karin; Renata C Pereira; Elizabeta Nemeth; Tomas Ganz
Journal:  Blood       Date:  2022-01-20       Impact factor: 22.113

Review 4.  The mutual crosstalk between iron and erythropoiesis.

Authors:  Clara Camaschella; Alessia Pagani; Laura Silvestri; Antonella Nai
Journal:  Int J Hematol       Date:  2022-05-27       Impact factor: 2.319

Review 5.  Bone morphogenic proteins in iron homeostasis.

Authors:  Xia Xiao; Víctor M Alfaro-Magallanes; Jodie L Babitt
Journal:  Bone       Date:  2020-06-23       Impact factor: 4.398

6.  Coordination of iron homeostasis by bone morphogenetic proteins: Current understanding and unanswered questions.

Authors:  Allison L Fisher; Jodie L Babitt
Journal:  Dev Dyn       Date:  2021-05-25       Impact factor: 3.780

Review 7.  Erythroferrone structure, function, and physiology: Iron homeostasis and beyond.

Authors:  Daniel N Srole; Tomas Ganz
Journal:  J Cell Physiol       Date:  2020-12-28       Impact factor: 6.513

Review 8.  The Role of Iron in Benign and Malignant Hematopoiesis.

Authors:  Sayantani Sinha; Joana Pereira-Reis; Amaliris Guerra; Stefano Rivella; Delfim Duarte
Journal:  Antioxid Redox Signal       Date:  2021-01-07       Impact factor: 7.468

Review 9.  Physiological and pathophysiological mechanisms of hepcidin regulation: clinical implications for iron disorders.

Authors:  Yang Xu; Víctor M Alfaro-Magallanes; Jodie L Babitt
Journal:  Br J Haematol       Date:  2020-12-14       Impact factor: 8.615

10.  Differentiating iron-loading anemias using a newly developed and analytically validated ELISA for human serum erythroferrone.

Authors:  Laura Diepeveen; Rian Roelofs; Nicolai Grebenchtchikov; Rachel van Swelm; Leon Kautz; Dorine Swinkels
Journal:  PLoS One       Date:  2021-07-20       Impact factor: 3.240

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