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MIF was found to be essential for axis formation and neural development of Xenopus embryos.
Data show that the mif pathway is required for both sensory hair cell (HC) and sensory neuronal cell survival in the ear, for HC differentiation, semicircular canal formation, statoacoustic ganglion (SAG (zeige SAG Proteine)) development, and lateral line HC differentiation.
renal tubular MIF is an endogenous renoprotective factor in progressive kidney diseases
locally produced MIF in the inflammatory bone lytic site is engaged in the chemoattraction of circulating CXCR4 (zeige CXCR4 Proteine)+ osteoclast precursor cells.
MIF expression was induced in chondrocytes of tissue-engineered cartilage, and could exert a profound effect on chondrocytes by promoting cartilage maturation. MIF could also regulate the phenotype of surrounding macrophages, impairing the maturation of transplanted tissues.
loss of autophagy, by pharmacological inhibition or siRNA silencing of Atg5 (zeige ATG5 Proteine), enhances MIF secretion by monocytes and macrophages.
CHD7 is an important factor in the proliferation and stemness maintenance of neural stem/progenitor cells.
MIF-deficient mice have reduced Nippostrongylus brasiliensis burden and mounted an enhanced type 2 immune response, including increased Gata3 (zeige GATA3 Proteine) expression and interleukin-13 (zeige IL13 Proteine) production in the mesenteric lymph nodes
Sertoli cells to produce MIF under normal conditions. MIFR (zeige MMP23B Proteine) is expressed in GFRalpha1 (zeige GFRA1 Proteine) and Sertoli cells. MIF induced spermatogonial cell migration
MIF-transgenic cells exhibited substantially decreased levels of p53 (zeige TP53 Proteine) after hyperthermia treatment compared with WT and MIF-knockout cells
recombinant macrophage migration inhibitory factor is important for the synthesis of il1beta (zeige IL1B Proteine) mRNA in vivo and in isolated macrophages.
MIF-CD74 (zeige CD74 Proteine) signaling inhibits interferon (IFN)-gamma (zeige IFNA Proteine) secretion in microglia through phosphorylation of microglial ERK1/2 (extracellular signal-regulated protein kinases 1 and 2). The inhibition of MIF signaling or its receptor CD74 (zeige CD74 Proteine) promotes IFN-gamma (zeige IFNG Proteine) release and amplifies tumor death either through pharmacological inhibition or through siRNA-mediated knockdown.
renal tubular MIF (zeige AMH Proteine) is an endogenous renoprotective factor in progressive kidney diseases
MIF (zeige AMH Proteine) is primarily an indirect promoter of glioblastoma progression.
frequent upregulation of MIF (zeige AMH Proteine) is implicated in the development and progression ofesophageal squamous cell carcinoma (ESCC).
Data highlight the complexity of the MIF (zeige AMH Proteine)/CD74 (zeige CD74 Proteine) signaling pathway in the development of mesothelioma.
increased nuclear-expressed MIF (zeige AMH Proteine) under hypoxia was identified to act as a transcriptional regulator by interacting with the promoter of SOX9 (zeige SOX9 Proteine) and RUNX2 (zeige RUNX2 Proteine).
MIF (zeige AMH Proteine) expression was induced in chondrocytes of tissue-engineered cartilage, and could exert a profound effect on chondrocytes by promoting cartilage maturation. MIF (zeige AMH Proteine) could also regulate the phenotype of surrounding macrophages, impairing the maturation of transplanted tissues.
loss of autophagy, by pharmacological inhibition or siRNA silencing of Atg5 (zeige ATG5 Proteine), enhances MIF (zeige AMH Proteine) secretion by monocytes and macrophages.
The function of the binding between MIF (zeige AMH Proteine) and HTRA1 (zeige HTRA1 Proteine) is to inhibit the proteolytic activity of HTRA1 (zeige HTRA1 Proteine).
MIF (zeige AMH Proteine) is a target of miR (zeige MLXIP Proteine)-451 in NSCLC cells.
MIF (zeige AMH Proteine) could activate the osteosarcoma RAS/MAPK (zeige MAPK1 Proteine) pathway in a time- and dose-dependent manner, thereby promoting cell proliferation, migration and lung metastasis.
plasma MIF concentrations may increase with age in months and parity, but do not change either before and after parturition or before and after postpartum first ovulation in Japanese black cows
Data suggest that, in obese cows, expression of MIF is suppressed in the ampulla and isthmus of Fallopian tubes as compared to normal-weight cows; however, MIF expression is also lower in Fallopian tubes of lean cows. The primary site of MIF expression in Fallopian tube ampulla/isthmus is the tunica mucosa. These studies were conducted in Japanese Black calves.
The objective of the present study was to determine if SNPs in 5' region of bovine MIF affects its promoter activity.
MIF plays a role in early embryo development, and further characterization of MIF expression and its regulation in the endometrium will add significantly to our understanding of early embryo-uterine interactions
The diverse actions of MIF within the immuno-neuroendocrine system may be a result of its occurrence in different isoforms and oligomerization states.
The purification of macrophage migration inhibitory factor (MIF) from bovine brain cytosol and its partial characterization are reported.
Transcription of MIF is induced by activation of PPARgamma2 (zeige PPARG Proteine) and inhibited by excessive resistin (zeige RETN Proteine).
The high activity of MIF in the maternal and fetal tissues throughout placentation and its expression in the nonpregnant uterus indicate a regulatory role for MIF during embryo receptivity and epitheliochorial placentation
This gene encodes a lymphokine involved in cell-mediated immunity, immunoregulation, and inflammation. It plays a role in the regulation of macrophage function in host defense through the suppression of anti-inflammatory effects of glucocorticoids. This lymphokine and the JAB1 protein form a complex in the cytosol near the peripheral plasma membrane, which may indicate an additional role in integrin signaling pathways.
, L-dopachrome tautomerase
, Phenylpyruvate tautomerase
, macrophage migration inhibitory factor
, phenylpyruvate tautomerase
, Macrophage migration inhibitory factor
, delayed early response protein 6
, glycosylation-inhibiting factor
, glutathione-binding 13 kDa protein