Treatment with recombinant granulocyte colony‐stimulating factor (FilgrastinTM) stimulates neutrophils and tissue macrophages and induces an effective non‐specific response against Mycobacterium avium in mice

A role of neutrophils in the host response against Mycobacterium avium (MAC) has recently been suggested. To investigate this matter further, we determined the effect of granulocyte colony‐stimulating factor (G‐CSF) on the outcome of MAC infection in mice. C57BL/6 bg+/bg− black mice were intravenous...

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Published inImmunology Vol. 94; no. 3; pp. 297 - 303
Main Authors BERMUDEZ, L. E., PETROFSKY, M., STEVENS, P.
Format Journal Article
LanguageEnglish
Published Oxford, UK Blackwell Science Ltd 01.07.1998
Wiley Subscription Services, Inc
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Abstract A role of neutrophils in the host response against Mycobacterium avium (MAC) has recently been suggested. To investigate this matter further, we determined the effect of granulocyte colony‐stimulating factor (G‐CSF) on the outcome of MAC infection in mice. C57BL/6 bg+/bg− black mice were intravenously infected with 1×107 MAC and then divided into four experimental groups to receive G‐CSF as follows: (i) 10 μg/kg/day; (ii) 50 μg/kg/day; (iii) 100 μg/kg/day; (iv) placebo control. Mice were killed at 2 and 4 weeks of treatment to determine the bacterial load of liver and spleen. Treatment with G‐CSF at both 10 and 50 μg/kg/day doses significantly decreased the number of viable bacteria in liver and spleen after 2 weeks (≈70·5% and 69·0%, respectively), and after 4 weeks (≈53% and 52%, respectively, P<0·05 compared with placebo control). Treatment with 100 μg/kg/day did not result in decrease of bacterial colony‐forming units in the liver and spleen after 4 weeks. Administration of G‐CSF induced interleukin‐10 (IL‐10) and IL‐12 production by splenocytes. To examine if the protective effect of G‐CSF was accompanied by the activation of phagocytic cells, blood neutrophils and splenic macrophages were purified from mice receiving G‐CSF and their ability to kill MAC was examined ex vivo. Neutrophils and macrophages from G‐CSF‐treated mice were able to inhibit the growth of or to kill MAC ex vivo, while phagocytic cells from untreated control mice had no anti‐MAC effect. These results suggest that activation of neutrophils appears to induce an effective non‐specific host defence against MAC, and further studies should aim for better understanding of the mechanisms of protection.
AbstractList A role of neutrophils in the host response against Mycobacterium avium (MAC) has recently been suggested. To investigate this matter further, we determined the effect of granulocyte colony-stimulating factor (G-CSF) on the outcome of MAC infection in mice. C57BL/6bg+/bg- black mice were intravenously infected with 1 x 10(7) MAC and then divided into four experimental groups to receive G-CSF as follows: (i) 10 micrograms/kg/day; (ii) 50 micrograms/kg/day; (iii) 100 micrograms/kg/day; (iv) placebo control. Mice were killed at 2 and 4 weeks of treatment to determine the bacterial load of liver and spleen. Treatment with G-CSF at both 10 and 50 micrograms/kg/day doses significantly decreased the number of viable bacteria in liver and spleen after 2 weeks (approximately 70.5% and 69.0%, respectively), and after 4 weeks (approximately 53% and 52%, respectively, P < 0.05 compared with placebo control). Treatment with 100 micrograms/kg/day did not result in decrease of bacterial colony-forming units in the liver and spleen after 4 weeks. Administration of G-CSF induced interleukin-10 (IL-10) and IL-12 production by splenocytes. To examine if the protective effect of G-CSF was accompanied by the activation of phagocytic cells, blood neutrophils and splenic macrophages were purified from mice receiving G-CSF and their ability to kill MAC was examined ex vivo. Neutrophils and macrophages from G-CSF-treated mice were able to inhibit the growth of or to kill MAC ex vivo, while phagocytic cells from untreated control mice had no anti-MAC effect. These results suggest that activation of neutrophils appears to induce an effective non-specific host defence against MAC, and further studies should aim for better understanding of the mechanisms of protection.
A role of neutrophils in the host response against Mycobacterium avium (MAC) has recently been suggested. To investigate this matter further, we determined the effect of granulocyte colony-stimulating factor (G-CSF) on the outcome of MAC infection in mice. C57BL/6bg+/bg- black mice were intravenously infected with 1 x 10(7) MAC and then divided into four experimental groups to receive G-CSF as follows: (i) 10 micrograms/kg/day; (ii) 50 micrograms/kg/day; (iii) 100 micrograms/kg/day; (iv) placebo control. Mice were killed at 2 and 4 weeks of treatment to determine the bacterial load of liver and spleen. Treatment with G-CSF at both 10 and 50 micrograms/kg/day doses significantly decreased the number of viable bacteria in liver and spleen after 2 weeks (approximately 70.5% and 69.0%, respectively), and after 4 weeks (approximately 53% and 52%, respectively, P &lt; 0.05 compared with placebo control). Treatment with 100 micrograms/kg/day did not result in decrease of bacterial colony-forming units in the liver and spleen after 4 weeks. Administration of G-CSF induced interleukin-10 (IL-10) and IL-12 production by splenocytes. To examine if the protective effect of G-CSF was accompanied by the activation of phagocytic cells, blood neutrophils and splenic macrophages were purified from mice receiving G-CSF and their ability to kill MAC was examined ex vivo. Neutrophils and macrophages from G-CSF-treated mice were able to inhibit the growth of or to kill MAC ex vivo, while phagocytic cells from untreated control mice had no anti-MAC effect. These results suggest that activation of neutrophils appears to induce an effective non-specific host defence against MAC, and further studies should aim for better understanding of the mechanisms of protection.
A role of neutrophils in the host response against Mycobacterium avium (MAC) has recently been suggested. To investigate this matter further, we determined the effect of granulocyte colony‐stimulating factor (G‐CSF) on the outcome of MAC infection in mice. C57BL/6 bg + /bg − black mice were intravenously infected with 1×10 7 MAC and then divided into four experimental groups to receive G‐CSF as follows: (i) 10 μg/kg/day; (ii) 50 μg/kg/day; (iii) 100 μg/kg/day; (iv) placebo control. Mice were killed at 2 and 4 weeks of treatment to determine the bacterial load of liver and spleen. Treatment with G‐CSF at both 10 and 50 μg/kg/day doses significantly decreased the number of viable bacteria in liver and spleen after 2 weeks (≈70·5% and 69·0%, respectively), and after 4 weeks (≈53% and 52%, respectively, P <0·05 compared with placebo control). Treatment with 100 μg/kg/day did not result in decrease of bacterial colony‐forming units in the liver and spleen after 4 weeks. Administration of G‐CSF induced interleukin‐10 (IL‐10) and IL‐12 production by splenocytes. To examine if the protective effect of G‐CSF was accompanied by the activation of phagocytic cells, blood neutrophils and splenic macrophages were purified from mice receiving G‐CSF and their ability to kill MAC was examined ex vivo . Neutrophils and macrophages from G‐CSF‐treated mice were able to inhibit the growth of or to kill MAC ex vivo , while phagocytic cells from untreated control mice had no anti‐MAC effect. These results suggest that activation of neutrophils appears to induce an effective non‐specific host defence against MAC, and further studies should aim for better understanding of the mechanisms of protection.
A role of neutrophils in the host response against Mycobacterium avium (MAC) has recently been suggested. To investigate this matter further, we determined the effect of granulocyte colony‐stimulating factor (G‐CSF) on the outcome of MAC infection in mice. C57BL/6 bg+/bg− black mice were intravenously infected with 1×107 MAC and then divided into four experimental groups to receive G‐CSF as follows: (i) 10 μg/kg/day; (ii) 50 μg/kg/day; (iii) 100 μg/kg/day; (iv) placebo control. Mice were killed at 2 and 4 weeks of treatment to determine the bacterial load of liver and spleen. Treatment with G‐CSF at both 10 and 50 μg/kg/day doses significantly decreased the number of viable bacteria in liver and spleen after 2 weeks (≈70·5% and 69·0%, respectively), and after 4 weeks (≈53% and 52%, respectively, P<0·05 compared with placebo control). Treatment with 100 μg/kg/day did not result in decrease of bacterial colony‐forming units in the liver and spleen after 4 weeks. Administration of G‐CSF induced interleukin‐10 (IL‐10) and IL‐12 production by splenocytes. To examine if the protective effect of G‐CSF was accompanied by the activation of phagocytic cells, blood neutrophils and splenic macrophages were purified from mice receiving G‐CSF and their ability to kill MAC was examined ex vivo. Neutrophils and macrophages from G‐CSF‐treated mice were able to inhibit the growth of or to kill MAC ex vivo, while phagocytic cells from untreated control mice had no anti‐MAC effect. These results suggest that activation of neutrophils appears to induce an effective non‐specific host defence against MAC, and further studies should aim for better understanding of the mechanisms of protection.
A role of neutrophils in the host response against Mycobacterium avium (MAC) has recently been suggested. To investigate this matter further, we determined the effect of granulocyte colony-stimulating factor (G-CSF) on the outcome of MAC infection in mice. C57BL/6 bg super(+)/bg super(-) black mice were intravenously infected with 1 x 10 super(7) MAC and then divided into four experimental groups to receive G-CSF as follows: (i) 10 mu g/kg/day; (ii) 50 mu g/kg/day; (iii) 100 mu g/kg/day; (iv) placebo control. Mice were killed at 2 and 4 weeks of treatment to determine the bacterial load of liver and spleen. Treatment with G-CSF at both 10 and 50 mu g/kg/day doses significantly decreased the number of viable bacteria in liver and spleen after 2 weeks ( approximately 70.5% and 69.0%, respectively), and after 4 weeks ( approximately 53% and 52%, respectively, P < 0.05 compared with placebo control). Treatment with 100 mu g/kg/day did not result in decrease of bacterial colony-forming units in the liver and spleen after 4 weeks. Administration of G-CSF induced interleukin-10 (IL-10) and IL-12 production by splenocytes. To examine if the protective effect of G-CSF was accompanied by the activation of phagocytic cells, blood neutrophils and splenic macrophages were purified from mice receiving G-CSF and their ability to kill MAC was examined ex vivo. Neutrophils and macrophages from G-CSF-treated mice were able to inhibit the growth of or to kill MAC ex vivo, while phagocytic cells from untreated control mice had no anti-MAC effect. These results suggest that activation of neutrophils appears to induce an effective non-specific host defence against MAC, and further studies should aim for better understanding of the mechanisms of protection.
Author PETROFSKY, M.
STEVENS, P.
BERMUDEZ, L. E.
AuthorAffiliation Kuzell Institute for Arthritis and Infectious Diseases, California Pacific Medical Center Research Institute, San Francisco, USA
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Snippet A role of neutrophils in the host response against Mycobacterium avium (MAC) has recently been suggested. To investigate this matter further, we determined the...
A role of neutrophils in the host response against Mycobacterium avium (MAC) has recently been suggested. To investigate this matter further, we determined the...
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proquest
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pubmed
wiley
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StartPage 297
SubjectTerms Animals
Drug Administration Schedule
Female
Filgrastim
Granulocyte Colony-Stimulating Factor - therapeutic use
Interleukin-10 - biosynthesis
Interleukin-12 - biosynthesis
Liver - microbiology
Macrophage Activation
Mice
Mice, Inbred C57BL
Mycobacterium avium
Neutrophil Activation
Recombinant Proteins
Spleen - immunology
Spleen - microbiology
Tuberculosis - immunology
Tuberculosis - microbiology
Tuberculosis - therapy
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Title Treatment with recombinant granulocyte colony‐stimulating factor (FilgrastinTM) stimulates neutrophils and tissue macrophages and induces an effective non‐specific response against Mycobacterium avium in mice
URI https://onlinelibrary.wiley.com/doi/abs/10.1046%2Fj.1365-2567.1998.00529.x
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