Macrophages support pathological erythropoiesis in polycythemia vera and β-thalassemia

Cited by (231)

Items 201–231 of 231

1. Impact of Radiation on Hematopoietic Niche
   Setsuko Mise‐Omata, Takahiro S. Doi, Kazuhiro Aoki, Yuichi Obata · 2015 · Stem cell biology and regenerative medicine
2. from the well-recognized role of macrophages in supporting late erythroid maturation. Together, these findings offer insight into the mechanism of stress erythropoiesis and into disorders of erythrocyte generation associated with stress. Stress-associated erythropoiesis initiation is regulated by type 1 conventional dendritic cells
   Taeg S. Kim, Mark F. Hanak, Paul C. Trampont, Thomas J. Braciale, Beirne B. Carter · 2015
3. Increased proliferation of erythroid progenitors is a feature common to many pathologic conditions associated with anemia or an excessive production of red cells. Chronic stress erythropoiesis (associated with ineffective erythropoiesis and anemia or er- ythrocytosis) leads to severe comorbidities that aggravate the patient's condition.
   Laura Breda, Stefano Rivella · 2014
4. Iron Deficiency and Iron Supplementation Conspire to Mediate Susceptibility to Erythrocytic Stage Plasmodium falciparum Infection
   Martha A. Clark · 2019 · Carolina Digital Repository (University of North Carolina at Chapel Hill)
5. THE ROLE OF OSTEOMACS IN REGULATING STEM CELL FUNCTION AND THE HEMATOPOIETIC NICHE
   Safa Mohamad, Joydeep Ghosh, Andrea Gunwan, Malgorzata Maria Kamocka, Rachel J. Blosser, Chi Zhang, Khalid Said Mohammad, Kenneth W. Dunn, Melissa A. Kacena, Edward F. Srour · 2019 · Experimental Hematology
6. Garland of Erythroblasts Around Macrophage: The Erythroblastic Island
   Chandan Kumar, Garima Jain, Anita Chopra · 2019 · Turkish Journal of Hematology
7. Is the erythropoietin receptor the key to the identification of the central macrophage in erythroblastic islands?
   Lionel Blanc, Narla Mohandas · 2020 · Blood Science
8. Systematic analysis of copper, zinc, and selenium levels in JAK2 V617F-positive myeloproliferative neoplasms
   Velizar Stefanov Shivarov, Gergana Tsvetkova, Bisera Dimitrova Atanasova, Mariana P. Genova, Irena D. Ivanova, Evgueniy A. Hadjiev, Milena Ivanova · 2024 · Annals of Hematology
9. Additional file 11 of GM-CSF impairs erythropoiesis by disrupting erythroblastic island formation via macrophages
   Weijie Cao, Wenjuan Fan, Fang Wang, Yinyin Zhang, Guanghua Wu, Xiaojing Shi, Jian Shi, Fengcai Gao, Meimei Yan, Rong Guo et al. · 2022 · Figshare
10. Additional file 12 of GM-CSF impairs erythropoiesis by disrupting erythroblastic island formation via macrophages
    Weijie Cao, Wenjuan Fan, Fang Wang, Yinyin Zhang, Guanghua Wu, Xiaojing Shi, Jian Shi, Fengcai Gao, Meimei Yan, Rong Guo et al. · 2022 · Figshare
11. Additional file 10 of GM-CSF impairs erythropoiesis by disrupting erythroblastic island formation via macrophages
    Weijie Cao, Wenjuan Fan, Fang Wang, Yinyin Zhang, Guanghua Wu, Xiaojing Shi, Jian Shi, Fengcai Gao, Meimei Yan, Rong Guo et al. · 2022 · Figshare
12. Additional file 9 of GM-CSF impairs erythropoiesis by disrupting erythroblastic island formation via macrophages
    Weijie Cao, Wenjuan Fan, Fang Wang, Yinyin Zhang, Guanghua Wu, Xiaojing Shi, Jian Shi, Fengcai Gao, Meimei Yan, Rong Guo et al. · 2022 · Figshare
13. Canonical Notch2 Signaling Regulates the Development of Iron-recycling Macrophages and Iron Homeostasis
    Frauline Nicole Schroth, Tamar G. Kapanadze, Stefan Sablotny, Yuangao Xu, Bo Mee Chung, Lena Deuper, Andreas Kispert, Matthias Lochner, Tibor Kempf, Hermann G. Haller et al. · 2024 · bioRxiv (Cold Spring Harbor Laboratory)
14. Erythroblast island macrophages and their surface markers
    Mei Fang, Fengjun Mei, Guangrui Li · 2025 · Frontiers in Hematology
15. Pathophysiology of Beta-Thalassaemia: (Part – 1) [Ineffective Erythropoiesis]
    Khin Maung Win · 2025 · Myanmar Medical Journal
16. Additional file 6 of GM-CSF impairs erythropoiesis by disrupting erythroblastic island formation via macrophages
    Cao, Weijie, Wenjuan Fan, Wang, Fang, Zhang, Yinyin, Wu, Guanghua, Shi, Xiaojing, Shi, Jian xiang, Gao, Fengcai, Meimei Yan, Guo, Rong et al. · 2022 · Figshare
17. Additional file 4 of GM-CSF impairs erythropoiesis by disrupting erythroblastic island formation via macrophages
    Cao, Weijie, Wenjuan Fan, Wang, Fang, Zhang, Yinyin, Wu, Guanghua, Shi, Xiaojing, Shi, Jian xiang, Gao, Fengcai, Meimei Yan, Guo, Rong et al. · 2022 · Figshare
18. Additional file 3 of GM-CSF impairs erythropoiesis by disrupting erythroblastic island formation via macrophages
    Cao, Weijie, Wenjuan Fan, Wang, Fang, Zhang, Yinyin, Wu, Guanghua, Shi, Xiaojing, Shi, Jian xiang, Gao, Fengcai, Meimei Yan, Guo, Rong et al. · 2022 · Figshare
19. Additional file 8 of GM-CSF impairs erythropoiesis by disrupting erythroblastic island formation via macrophages
    Cao, Weijie, Wenjuan Fan, Wang, Fang, Zhang, Yinyin, Wu, Guanghua, Shi, Xiaojing, Shi, Jian xiang, Gao, Fengcai, Meimei Yan, Guo, Rong et al. · 2022 · Figshare
20. Additional file 7 of GM-CSF impairs erythropoiesis by disrupting erythroblastic island formation via macrophages
    Cao, Weijie, Wenjuan Fan, Wang, Fang, Zhang, Yinyin, Wu, Guanghua, Shi, Xiaojing, Shi, Jian xiang, Gao, Fengcai, Meimei Yan, Guo, Rong et al. · 2022 · Figshare
21. Additional file 1 of GM-CSF impairs erythropoiesis by disrupting erythroblastic island formation via macrophages
    Cao, Weijie, Wenjuan Fan, Wang, Fang, Zhang, Yinyin, Wu, Guanghua, Shi, Xiaojing, Shi, Jian xiang, Gao, Fengcai, Meimei Yan, Guo, Rong et al. · 2022 · Figshare
22. Additional file 2 of GM-CSF impairs erythropoiesis by disrupting erythroblastic island formation via macrophages
    Cao, Weijie, Wenjuan Fan, Wang, Fang, Zhang, Yinyin, Wu, Guanghua, Shi, Xiaojing, Shi, Jian xiang, Gao, Fengcai, Meimei Yan, Guo, Rong et al. · 2022 · Figshare
23. Additional file 5 of GM-CSF impairs erythropoiesis by disrupting erythroblastic island formation via macrophages
    Cao, Weijie, Wenjuan Fan, Wang, Fang, Zhang, Yinyin, Wu, Guanghua, Shi, Xiaojing, Shi, Jian xiang, Gao, Fengcai, Meimei Yan, Guo, Rong et al. · 2022 · Figshare
24. Rôle modulateur de l’hème sur la réponse des lymphocytes T et des cellules gliales : impact sur la physiopathologie du paludisme grave
    Esther Dalko · 2015
25. Identification de gènes candidats pour l'anémie de Blackfan-Diamond et caractérisation phénotypique
    Manon Saby · 2019 · theses.fr (ABES)
26. Contrôle de l’homéostasie des macrophages de la pulpe rouge splénique par une niche fibroblastique
    Alicia Bellomo · 2020 · theses.fr (ABES)
27. Tracing the in vivo behavior of nucleated cultured red blood cells generated from hematopoietic stem and progenitor cells
    Lei Xu, Zhou Yang, Liqing Liang, Jing Zhang, Xin Yuan, Pengcong Liu, Qian Dong, Xuetao Pei, Mingyi Qu, Wen Yue et al. · 2026 · Stem Cell Research & Therapy
28. CD163+ macrophages coordinate erythroblastic Island formation and iron metabolism to enable glucocorticoid-induced erythropoiesis
    Mengjia Li, Yaomei Wang, Hong Huang, Hao Sun, Mengya Gao, Mingxia Sun, Xudong Li, Z.H. Liu, D W Liu, Meimei Yan et al. · 2026 · Biomarker Research
29. Characterization of erythroblastic island and tissue macrophages using a novel CD169-tdTomato-Cre mouse model and scRNA-seq
    Donghao Liu, Huan Zhang, Qianqian Yang, Anqi Guo, Huizhi Zhao, Xinhua Guo, Karina Yazdanbakhsh, Xiuli An · 2026 · Blood Red Cells & Iron
30. Regulation of erythroid development by iron metabolism
    Muhammad Ishfaq, Yvette Y. Yien · 2026 · Current topics in developmental biology/Current Topics in Developmental Biology
31. Canonical Notch2 signaling regulates development and maintenance of iron-recycling macrophages and iron homeostasis
    Frauline Nicole Schroth, Tamar Kapanadze, Stefan Sablotny, Yuangao Xu, Alessia Ascierto, Matthias Ballmaier, Katharina Mauel, Bo Mee Chung, Lena Deuper, Andréy S. Shaw et al. · 2026 · Nature Communications