Review article
Superoxide dependent iron release from ferritin in inflammatory diseases

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Abstract

Convincing evidence is presented that oxygen free radicals are involved in the pathogenesis of rheumatoid arthritis (RA). Superoxide is produced by polymorphonuclear leucocytes (PMN) in synovial fluid and by macrophages in the synovial membrane. Tissue damage typical for the free radical attack is detected in RA. No absolute deficiency of protective factors is found in RA compared to controls, but the available protection is insufficient to cope with all radicals formed. The toxicity of superoxide is increase by iron. It is doubtful whether a low molecular weight iron pool is presented. Superoxide is able to release iron from ferritin, providing a suitalbe source of iron, for the formation of hydroxyl radicals. This new pathogenetic mechanism stimulates to the application of iron chelators in the treatment of RA. Preliminary results with desferrioxamine were disappointing because of serious side-effects. Hopefully in the future intra-articular injection of iron chelators with better pharmacodynamics will possible. The interaction of free radicals and ferritin is probably also involved in the pathogenesis of other inflammatory diseases such as systemic lupus erythematosus, hepatitis, and haemochromatosus.

References (182)

  • I.M. Goldstein et al.

    Ceruloplasmin: a scavenger of superoxide anion radicals

    J. Biol. Chem.

    (1979)
  • S. Yamashoji et al.

    Antioxidant effect of caeruloplasmin on microsomal lipid peroxidation

    FEBS Lett.

    (1983)
  • M. Nishikimi

    Oxidation of ascorbic acid with superoxide anion generated by the xanthine-xanthine oxidase system

    Biochem. Biophys. Res. Comm.

    (1975)
  • E. Munthe et al.

    Increased intracellular glutathione deriving penicillamine treatment for rheumatoid arthritis

    Lancet

    (1979)
  • K.M. Goebel et al.

    Intrasynovial orgotein therapy in rheumatoid arthritis

    Lancet

    (1981)
  • K. Goebel et al.

    Effect of intra-articular orgotein versus a corticosteroid on rheumatoid arthritis of the knees

    Am. J. Med.

    (1983)
  • R.A. Greenwald

    Therapeutic benefits of oxygen radical scavenger treatment remain unproven

    J. Free Radical Biol. Med.

    (1985)
  • H.S. Edelson et al.

    Dissociation by peroxicam of degranulation and superoxide anion generation from decrements of chlortetracyclin fluorescence of activated human neutrophils

    Biochem. Biophys. Res. Comm.

    (1982)
  • H.B. Kaplan et al.

    Effects of non-steroidal anti-inflammatory agents on human neutrophil functions in vitro and in vivo

    Biochem. Pharmacol.

    (1984)
  • S. Abramson et al.

    Inhibition of neutrophil activation by non-steroidal anti-inflammatory drugs

    Am. J. Med.

    (1984)
  • I. Fridovich

    Biological effects of the superoxide radical

    Arch. Biochem. Biophys.

    (1986)
  • J.M. McCord et al.

    Superoxide-dependent production of hydroxyl radical catalysed by iron-EDTA complex

    FEBS Lett.

    (1978)
  • B. Halliwell

    Superoxide-dependent formation of hydroxyl radicals in the presence of iron chelates. Is it a mechanism for hydroxyl radical production in biological systems?

    FEBS Lett.

    (1978)
  • B. Halliwell et al.

    Formation of a thiobarbituric-acid-reactive substance from deoxyribose in the presence of iron salts. The role of superoxide and hydroxyl radicals

    FEBS Lett.

    (1981)
  • W. Flitter et al.

    Superoxide-dependent formation of hydroxyl radicals in the presence of iron salts. What is the physiological iron chelator?

    FEBS Lett.

    (1983)
  • B.M. Babior et al.

    Biological defense mechanism. The production by leucocytes of superoxide, a potent bactericidal agent

    J. Clin. Invest.

    (1973)
  • J.M. McCord et al.

    The pathophysiology of superoxide: Roles in inflammation and ischemia

    Can. J. Physiol. Pharmacol.

    (1982)
  • J.C. Fantone et al.

    Role of oxygen derived free radicals and metabolites in leukocyte-dependent inflammatory reactions

    Am. J. Pathol.

    (1982)
  • P.A. Ward et al.

    Evidence for role of hydroxyl radical in complement and neutrophil-dependent tissue injury

    J. Clin. Invest.

    (1983)
  • B. Halliwell et al.

    Metal ions and oxygen radical reactions in human inflammatory joint disease

    Phil. Trans. R. Soc. Lond. Biol.

    (1985)
  • B. Halliwell et al.

    Oxygen toxicity, oxygen radicals, transition metals and disease

    Biochem. J.

    (1984)
  • A.M. Wolfe

    The epidemiology of rheumatoid arthritis: A review

    Bull. Rheum. Dis.

    (1968)
  • A.J. McMichael et al.

    Increased frequency of HLA-3c and HLA-Dw4 in rheumatoid arthritis

    Arthritis Rheum.

    (1977)
  • P. Stasny

    Association of the B-cell alloantigen DR4 with rheumatoid arthritis

    N. Engl. J. Med.

    (1978)
  • A.M. Solinger et al.

    Cellular, molecular and genetic characteristics of T cell reactivity to collagen in man

  • I. Mansson et al.

    Fecal clostridium perfringens and rheumatoid arthritis

    J. Infect. Dis.

    (1974)
  • S.M. Stewart et al.

    Isolation of diphtheroid bacili from synovial membrane and fluid in rheumatoid arthritis

    Ann. Rheum. Dis.

    (1969)
  • R.F. Ross

    Pathogenicity of swine mycoplasms

    Ann. N. Y. Acad. Sci.

    (1973)
  • M.A. Alspaugh et al.

    Serum antibody in rheumatoid arthritis reactive with a cell-associated antigen: Demonstration by precipitation and immunofluorescence

    Arthritis Rheum.

    (1976)
  • F. Hasler et al.

    Analysis of the defects responsible for the impaired regulation of Epstein-Barr virus-induced B cell proliferation by rheumatoid arthritis lymphocytes

    J. Exp. Med.

    (1983)
  • D.E. Trentham et al.

    Autoimmunity to type II collagen: An experimental model of arthritis

    J. Exp. Med.

    (1977)
  • J. Lunec et al.

    Selfperpetuating mechanisms of immunoglobulin G aggregation in rheumatoid inflammatory

    J. Clin. Invest.

    (1985)
  • E.D. Albert et al.

    The major histocompatibility system in man

  • B. Vernon-Roberts

    Synovial Fluid and its examination

  • R.T. Briggs et al.

    Hydrogen peroxide production in chronic granulomatous disease. A cytochemical study of reduced pyridine nucleotide oxidase

    J. Clin. Invest.

    (1977)
  • R.B. Johnson et al.

    Chronic granulomatous disease

    Pediatr. Clin. North. Am.

    (1977)
  • H.A. Verbrugh et al.

    Phagocytosis and killing of staphylococci by human polymorphonuclear and mononuclear leucocytes

    J. Clin. Pathol.

    (1978)
  • I.M. Goldstein et al.

    Complement and immunoglobulins stimulate superoxide production by human leukocytes independently of phagocytosis

    J. Clin. Invest.

    (1975)
  • R. Gale et al.

    Direct activation of neutrophil chemiluminescence by rheumatoid sera and synovial fluid

    Ann. Rheum. Dis.

    (1983)
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