BACKGROUND: In mice, refrigerator-stored red blood cells (RBCs) are cleared by extravascular hemolysis and induce cytokine production. To enhance understanding of this phenomenon, we sought to model it in vitro. STUDY DESIGN AND METHODS: Ingestion of refrigerator-stored murine RBCs and subsequent cytokine production were studied using J774A.1 mouse macrophage cells and primary murine splenic macrophages. Wild-type and Ccl2-GFP reporter mice were used for RBC clearance in vivo. RESULTS: Although J774A.1 cells and primary macrophages preferentially ingested refrigerator-stored RBCs in vitro, compared to freshly isolated RBCs, neither produced increased cytokines after erythrophagocytosis. In contrast, phagocytosis of refrigerator-stored RBCs in vivo induced increases in circulating monocyte chemoattractant protein-1 (MCP-1) and keratinocyte chemoattractant (KC) and correspondingly increased mRNA levels in mouse spleen and liver. In the spleen, these were predominantly expressed by CD11b+ cells. Using Ccl2-GFP reporter mice, the predominant splenic population responsible for MCP-1 mRNA production was tissue-resident macrophages (i.e., CD45+, CD11b+, F4/80+, Ly6c+, and CD11c(low) cells). CONCLUSION: J774A.1 cells and primary macrophages selectively ingested refrigerator-stored RBCs by phagocytosis. Although cytokine expression was not enhanced, this approach could be used to identify the relevant receptor-ligand combination(s). In contrast, cytokine levels increased after phagocytosis of refrigerator-stored RBCs in vivo. These were primarily cleared in the liver and spleen, which demonstrated increased MCP-1 and KC mRNA expression. Finally, in mouse spleen, tissue-resident macrophages were predominantly involved in MCP-1 mRNA production. The differences between cytokine production in vitro and in vivo are not yet well understood.
BACKGROUND: In mice, refrigerator-stored red blood cells (RBCs) are cleared by extravascular hemolysis and induce cytokine production. To enhance understanding of this phenomenon, we sought to model it in vitro. STUDY DESIGN AND METHODS: Ingestion of refrigerator-stored murine RBCs and subsequent cytokine production were studied using J774A.1mouse macrophage cells and primary murine splenic macrophages. Wild-type and Ccl2-GFP reporter mice were used for RBC clearance in vivo. RESULTS: Although J774A.1 cells and primary macrophages preferentially ingested refrigerator-stored RBCs in vitro, compared to freshly isolated RBCs, neither produced increased cytokines after erythrophagocytosis. In contrast, phagocytosis of refrigerator-stored RBCs in vivo induced increases in circulating monocyte chemoattractant protein-1 (MCP-1) and keratinocyte chemoattractant (KC) and correspondingly increased mRNA levels in mouse spleen and liver. In the spleen, these were predominantly expressed by CD11b+ cells. Using Ccl2-GFP reporter mice, the predominant splenic population responsible for MCP-1 mRNA production was tissue-resident macrophages (i.e., CD45+, CD11b+, F4/80+, Ly6c+, and CD11c(low) cells). CONCLUSION:J774A.1 cells and primary macrophages selectively ingested refrigerator-stored RBCs by phagocytosis. Although cytokine expression was not enhanced, this approach could be used to identify the relevant receptor-ligand combination(s). In contrast, cytokine levels increased after phagocytosis of refrigerator-stored RBCs in vivo. These were primarily cleared in the liver and spleen, which demonstrated increased MCP-1 and KC mRNA expression. Finally, in mouse spleen, tissue-resident macrophages were predominantly involved in MCP-1 mRNA production. The differences between cytokine production in vitro and in vivo are not yet well understood.
Authors: Eldad A Hod; Ning Zhang; Set A Sokol; Boguslaw S Wojczyk; Richard O Francis; Daniel Ansaldi; Kevin P Francis; Phyllis Della-Latta; Susan Whittier; Sujit Sheth; Jeanne E Hendrickson; James C Zimring; Gary M Brittenham; Steven L Spitalnik Journal: Blood Date: 2010-03-18 Impact factor: 22.113
Authors: Chao Shi; Ting Jia; Simon Mendez-Ferrer; Tobias M Hohl; Natalya V Serbina; Lauren Lipuma; Ingrid Leiner; Ming O Li; Paul S Frenette; Eric G Pamer Journal: Immunity Date: 2011-03-31 Impact factor: 31.745
Authors: Eldad A Hod; Gary M Brittenham; Genia B Billote; Richard O Francis; Yelena Z Ginzburg; Jeanne E Hendrickson; Jeffrey Jhang; Joseph Schwartz; Shruti Sharma; Sujit Sheth; Anthony N Sireci; Hannah L Stephens; Brie A Stotler; Boguslaw S Wojczyk; James C Zimring; Steven L Spitalnik Journal: Blood Date: 2011-10-20 Impact factor: 22.113
Authors: Christopher R Gilson; Teresa S Kraus; Eldad A Hod; Jeanne E Hendrickson; Steven L Spitalnik; Christopher D Hillyer; Beth H Shaz; James C Zimring Journal: Transfusion Date: 2009-08 Impact factor: 3.157
Authors: Sonia Carta; Sara Tassi; Ilaria Pettinati; Laura Delfino; Charles A Dinarello; Anna Rubartelli Journal: J Biol Chem Date: 2011-05-31 Impact factor: 5.157
Authors: Philip C Spinella; Christopher L Carroll; Ilene Staff; Ronald Gross; Jacqueline Mc Quay; Lauren Keibel; Charles E Wade; John B Holcomb Journal: Crit Care Date: 2009-09-22 Impact factor: 9.097
Authors: Sheila Bandyopadhyay; Gary M Brittenham; Richard O Francis; James C Zimring; Eldad A Hod; Steven L Spitalnik Journal: Blood Transfus Date: 2017-03 Impact factor: 3.443
Authors: Lyla A Youssef; Abdelhadi Rebbaa; Sergey Pampou; Stuart P Weisberg; Brent R Stockwell; Eldad A Hod; Steven L Spitalnik Journal: Blood Date: 2018-04-17 Impact factor: 22.113
Authors: Jelena Medved; Brittney M Knott; Soraya N Tarrah; Andria N Li; Neha Shah; Tamara C Moscovich; Alexis R Boscia; Juan E Salazar; Manjula Santhanakrishnan; Jeanne E Hendrickson; Xiaoyun Fu; James C Zimring; Chance John Luckey Journal: Transfusion Date: 2021-06-28 Impact factor: 3.337
Authors: David R Gibb; Samuele Calabro; Dong Liu; Christopher A Tormey; Steven L Spitalnik; James C Zimring; Jeanne E Hendrickson; Eldad A Hod; Stephanie C Eisenbarth Journal: EBioMedicine Date: 2016-06-16 Impact factor: 8.143