If you are seeing this message, you may be experiencing temporary network problems. Please wait a few minutes and refresh the page. If the problem persists, you may wish to report it to your local Network Manager.
It is also possible that your web browser is not configured or not able to display style sheets. In this case, although the visual presentation will be degraded, the site should continue to be functional. We recommend using the latest version of Microsoft or Mozilla web browser to help minimise these problems.
Wiley InterScience | ||
![]() Internal Medicine JournalVolume 35 Issue 7, Pages 419 - 426 Published Online: 16 Jun 2005 Journal compilation © 2009 Royal Australasian College of Physicians The Official Journal of the Adult Medicine Division of The Royal Australasian College of Physicians (RACP)
Abstract | References | Full Text: HTML, PDF (Size: 180K) | Related Articles | Citation Tracking Review Article New therapeutic target in inflammatory disease: macrophage migration inhibitory factor Funding: National Health and Medical Research Council of Australia; National Institute of Health USA. Potential conflicts of interest: Associate Professor Morand is a part-time employee and shareholder of Cortical Pty Ltd, a biotechnology company engaged in the discovery of MIF antagonists. Copyright 2005 Royal Australasian College of Physicians KEYWORDS macrophage migration inhibitory factor • rheumatoid arthritis • inflammation • glucocorticoids ABSTRACTAbstract The cytokine macrophage migration inhibitory factor (MIF) participates in fundamental events in innate and adaptive immunity. The profile of activities of MIF in vivo and in vitro is strongly suggestive of a role for MIF in the pathogenesis of many inflammatory diseases, including rheumatoid arthritis (RA), and hence antagonism of MIF is suggested as a potential therapeutic strategy in inflammatory disease. The best developed case for therapeutic antagonism of MIF is in RA. In RA, MIF is abundantly expressed in serum and synovial tissue. MIF induces synovial expression of key pro-inflammatory genes, regulates the function of endothelial cells and leucocytes, and is implicated in the control of synoviocyte proliferation and apoptosis via direct effects on the expression of the tumour suppressor protein p53. In animal models of RA, anti-MIF antibodies or genetic MIF deficiency are associated with significant inhibition of disease. A similar case has been made, for example using MIF-deficient mice, in models of atheroma, colitis, multiple sclerosis and other inflammatory diseases. The relationship with p53 also means MIF may be important in the link between inflammatory disease and cancer, such as is seen in RA or colitis. MIF also has a unique relationship with glucocorticoids, in that despite antagonizing their effects, the expression of MIF is in fact induced by glucocorticoids. Thus, MIF functions as a physiological counter-regulator of the anti-inflammatory effects of glucocorticoids. This may be entrained by selective activation of mitogen-activated protein kinases rather than nuclear factor kappa B. Therapeutic MIF antagonism may therefore provide a specific means of 'steroid sparing'. Exploitation of antibody, soluble receptor or small molecule technologies may soon lead to the ability to test in the clinic the importance of MIF in human inflammatory diseases. (Intern Med J 2005; 35: 419–426) Received 6 January 2005; accepted 22 February 2005. |