Galectin‐3 disruption impaired tumoral angiogenesis by reducing VEGF secretion from TGF β 1‐induced macrophages

In order to study the role of galectin‐3 in tumor angiogenesis associated with tumor‐associated macrophages (TAM) and tumor parenchyma, the galectin‐3 expression was reconstituted in Tm1 melanoma cell line that lacks this protein. Galectin‐3‐expressing cells (Tm1G3) and mock‐vector transfected cells...

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Veröffentlicht in:Cancer medicine (Malden, MA) MA), 2014-04, Vol.3 (2), p.201-214
Hauptverfasser: Machado, Camila Maria Longo, Andrade, Luciana Nogueira Sousa, Teixeira, Verônica Rodrigues, Costa, Fabrício Falconi, Melo, Camila Morais, dos Santos, Sofia Nascimento, Nonogaki, Suely, Liu, Fu‐Tong, Bernardes, Emerson Soares, Camargo, Anamaria Aranha, Chammas, Roger
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container_issue 2
container_start_page 201
container_title Cancer medicine (Malden, MA)
container_volume 3
creator Machado, Camila Maria Longo
Andrade, Luciana Nogueira Sousa
Teixeira, Verônica Rodrigues
Costa, Fabrício Falconi
Melo, Camila Morais
dos Santos, Sofia Nascimento
Nonogaki, Suely
Liu, Fu‐Tong
Bernardes, Emerson Soares
Camargo, Anamaria Aranha
Chammas, Roger
description In order to study the role of galectin‐3 in tumor angiogenesis associated with tumor‐associated macrophages (TAM) and tumor parenchyma, the galectin‐3 expression was reconstituted in Tm1 melanoma cell line that lacks this protein. Galectin‐3‐expressing cells (Tm1G3) and mock‐vector transfected cells (Tm1N3) were injected into wild‐type (WT) and galectin‐3 knockout (KO) C57Bl/6 mice. Tumors originated from Tm1G3 were larger in tumor volume with enlarged functional vessels, decreased necrotic areas, and increased vascular endothelial growth factor (VEGF) protein levels. Galectin‐3‐nonexpressing‐cells injected into WT and KO showed increased levels of transforming growth factor beta 1 (TGF β 1) and, in WT animals this feature was also accompanied by increased VEGFR2 expression and its phosphorylation. In KO animals, tumors derived from galectin‐3‐expressing cells were infiltrated by CD68 + ‐cells, whereas in tumors derived from galectin‐3‐nonexpressing‐cells, CD68 + cells failed to infiltrate tumors and accumulated in the periphery of the tumor mass. In vitro studies showed that Tm1G3 secreted more VEGF than Tm1N3 cells. In the latter case, TGF β 1 induced VEGF production. Basal secretion of VEGF was higher in WT‐bone marrow‐derived macrophages (BMDM) than in KO‐BMDM. TGF β 1 induced secretion of VEGF only in WT‐BMDM. Tm1G3‐induced tumors had the Arginase I mRNA increased, which upregulated alternative macrophage (M2)/TAM induction. M2 stimuli , such as interleukin‐4 (IL4) and TGF β 1, increased Arginase I protein levels and galectin‐3 expression in WT‐ BMDM, but not in cells from KO mice. Hence, we report that galectin‐3 disruption in tumor stroma and parenchyma decreases angiogenesis through interfering with the responses of macrophages to the interdependent VEGF and TGF β 1 signaling pathways.
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Galectin‐3‐expressing cells (Tm1G3) and mock‐vector transfected cells (Tm1N3) were injected into wild‐type (WT) and galectin‐3 knockout (KO) C57Bl/6 mice. Tumors originated from Tm1G3 were larger in tumor volume with enlarged functional vessels, decreased necrotic areas, and increased vascular endothelial growth factor (VEGF) protein levels. Galectin‐3‐nonexpressing‐cells injected into WT and KO showed increased levels of transforming growth factor beta 1 (TGF β 1) and, in WT animals this feature was also accompanied by increased VEGFR2 expression and its phosphorylation. In KO animals, tumors derived from galectin‐3‐expressing cells were infiltrated by CD68 + ‐cells, whereas in tumors derived from galectin‐3‐nonexpressing‐cells, CD68 + cells failed to infiltrate tumors and accumulated in the periphery of the tumor mass. In vitro studies showed that Tm1G3 secreted more VEGF than Tm1N3 cells. In the latter case, TGF β 1 induced VEGF production. 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Galectin‐3‐expressing cells (Tm1G3) and mock‐vector transfected cells (Tm1N3) were injected into wild‐type (WT) and galectin‐3 knockout (KO) C57Bl/6 mice. Tumors originated from Tm1G3 were larger in tumor volume with enlarged functional vessels, decreased necrotic areas, and increased vascular endothelial growth factor (VEGF) protein levels. Galectin‐3‐nonexpressing‐cells injected into WT and KO showed increased levels of transforming growth factor beta 1 (TGF β 1) and, in WT animals this feature was also accompanied by increased VEGFR2 expression and its phosphorylation. In KO animals, tumors derived from galectin‐3‐expressing cells were infiltrated by CD68 + ‐cells, whereas in tumors derived from galectin‐3‐nonexpressing‐cells, CD68 + cells failed to infiltrate tumors and accumulated in the periphery of the tumor mass. In vitro studies showed that Tm1G3 secreted more VEGF than Tm1N3 cells. In the latter case, TGF β 1 induced VEGF production. Basal secretion of VEGF was higher in WT‐bone marrow‐derived macrophages (BMDM) than in KO‐BMDM. TGF β 1 induced secretion of VEGF only in WT‐BMDM. Tm1G3‐induced tumors had the Arginase I mRNA increased, which upregulated alternative macrophage (M2)/TAM induction. M2 stimuli , such as interleukin‐4 (IL4) and TGF β 1, increased Arginase I protein levels and galectin‐3 expression in WT‐ BMDM, but not in cells from KO mice. Hence, we report that galectin‐3 disruption in tumor stroma and parenchyma decreases angiogenesis through interfering with the responses of macrophages to the interdependent VEGF and TGF β 1 signaling pathways.</abstract><cop>Bognor Regis</cop><pub>John Wiley &amp; Sons, Inc</pub><doi>10.1002/cam4.173</doi><tpages>14</tpages><oa>free_for_read</oa></addata></record>
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subjects Angiogenesis
Arginase
Bone marrow
Cell adhesion & migration
Cytokines
DNA methylation
Genotype & phenotype
Growth factors
Interleukin 4
Macrophages
Medical prognosis
Melanoma
mRNA
Parenchyma
Phosphorylation
Proteins
Stroma
Transforming growth factor-b1
Tumors
Vascular endothelial growth factor
title Galectin‐3 disruption impaired tumoral angiogenesis by reducing VEGF secretion from TGF β 1‐induced macrophages
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