d-penicillamine: Chemistry and clinical use in rheumatic disease

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Abstract

The discovery of d-penicillamine and its uses in medicine are reviewed. Chemical-physical properties are discussed, and the molecular structure of d-penicillamine and several of its reaction products are illustrated. Examples of its three main types of biochemical reactions—sulfhydryl-disulfide exchange, thiazolidine formation, and metal chelation are included. Trials of d-penicillamine in RA patients are reviewed critically. The administration of the drug is discussed in detail, including dosages, clinical and laboratory responses, patterns of adverse side effects or toxicity, drug-induced autoimmune diseases, indications and contraindications, and the monitoring and management of patients.

References (191)

  • Brief History of the Study of Penicillin

  • S.N. Rao et al.

    Structure and conformation of amino acids containing sulfur. I. Crystal and molecular structure of l-β,β-dimethylcysteine (penicillamine) hydrochloride monohydrate

    Acta Crystallogr

    (1973)
  • W.M. Weigert et al.

    d-penicillamine—production and properties

    Angew Chem Int Ed

    (1975)
  • H.E. Howard-Lock et al.

    The crystal structure of racemic dl-penicillamine and a spectroscopic study of d-(−)-penicillamine

    J Cryst Spectr Res

    (1983)
  • J.C. Sheehan et al.

    The total synthesis of penicillin V

    J Am Chem Soc

    (1959)
    J.C. Sheehan et al.

    J Am Chem Soc

    (1957)
  • O Sus

    Liebigs Ann Chem Uber die Anlagenung von Schwefelverbindungen an die β,β-Dimethylacrylsaure—Synthesen der β,β-Dimethyl-α-aminopropionsaure

    dl-Penicillamin

    (1948)
    O Sus

    Synthetische Versuche in der Penicillin-Reihe (II)

    (1948)
    O Sus

    Synthetische Versuche in der Penicillinreihe IV

    (1950)
    O Sus

    Synthetische Versuche in der Penicillinreihe V

    (1950)
    O Sus

    Synthetische Versuche in der Penicillinreihe VI

    (1951)
  • J.M. Walshe

    Penicillamine: A new oral therapy for Wilson's disease

    Am J Med

    (1956)
  • J.C. Crawhall et al.

    Effects of penicillamine on cystinuria

    Br Med J

    (1963)
  • Controlled trial of d-penicillamine in severe rheumatoid arthritis

    Lancet

    (1973)

    Lancet

    (1974)
  • H Schairer et al.

    Long term follow-up of 235 cases of juvenile rheumatoid arthritis treated with d-penicillamine

  • M.A. Hall et al.

    A comparative study of gold and penicillamine in the management of seronegative juvenile chronic arthritis

  • R.K. Winklemann et al.

    Management of scleroderma

  • S Jain et al.

    A controlled trial of d-penicillamine therapy in primary biliary cirrhosis

    Lancet

    (1977)
  • E.R. Dickson

    The syndrome of primary biliary cirrhosis

    J Rheumatol

    (1981)
  • H.T. Nagasawa et al.

    2,5,5-Trimethylthiazolidine-4-carboxylic acid, a D-(−)-penicillamine directed pseudometabolite of ethanol. Detoxication mechanism for acetaldehyde

    J Med Chem

    (1978)
  • A Goldberg et al.

    Treatment of lead poisoning with oral penicillamine

    Br Med J

    (1963)
  • M Tamir et al.

    Mercury poisoning from an unsuspected source

    Br J Ind Med

    (1964)
  • S.N. Javett et al.

    Acrodynia treated with d-penicillamine

    Am J Dis Child

    (1968)
  • E.J. Moynahan

    d-penicillamine in Morphoea

    Lancet

    (1973)
  • H.J. Copenhagen

    Postgrad Med J Oct

    (1968)
  • W.E. Beer et al.

    Penicillamine for the treatment of Darier's disease and other disorders of keratin formation

    Lancet

    (1966)
  • M.F. Deutsch et al.

    Dissociation of human serum macroglobulins

    Science

    (1957)
  • A Yokoyama et al.

    Labelling products of penicillamine with technetium-99m

  • R.G. Robinson et al.

    A kit for the preparation of basic 99mTc penicillamine for renal scanning

    Int J Appl Radiat Isot

    (1977)
  • J.E. Wilson et al.

    Inhibition of the growth of the rat by l-penicillamine and its prevention by aminoethanol and related compounds

    J Biol Chem

    (1950)
  • R Faggiani et al.

    Structural and spectroscopic studies of dipotassium 3,3,3′,3′-tetramethylcystinate trihydrate, K2[C10H18N2O4S2]3H2O

    Can J Chem

    (1984)
  • N.A. Rosenthal et al.

    Ultraviolet spectra of alky disulfudes and their relation to alkali cleavage of disulfide bonds

    J Am Chem Soc

    (1961)
  • Howard-Lock HE, Faggiani R, Martins ML, et al: Amino acid-zwitterion equilibria in methyl-substituted...
  • P.J.M.W.L. Birker et al.

    Metal binding in chelation therapy: X-ray crystal structure of a copper(I)-copper(II) complex of d-penicillamine

    J Chem Soc Chem Commun

    (1976)
  • R.A. Greenwald et al.

    Inhibition of collagen gelation by action of the Superoxide radical

    Arthritis Rheum

    (1979)
  • K Venkatasubramanian et al.

    Action of singlet oxygen on collagen

    Indian J Biochem Biophys

    (1977)
  • R.A. Greenwald et al.

    Effect of oxygen derived free radicals on hyaluronic acid

    Arthritis Rheum

    (1980)
  • J.M. McCord

    Free radicals and inflammations: Reaction of synovial fluid Superoxide dismutase

    Science

    (1974)
  • B Halliwell

    Free radicals and inflammation: Reaction of synovial fluid by Superoxide dismutase

    FEBS Lett

    (1978)
  • K.B. Menander-Huber et al.

    Orgotein, the drug version of bovine Cu-Zn Superoxide dismutase II. A summary account of clinical trials in man and animals

  • W Huber et al.

    Orgotein

    Clin Rheum Dis

    (1980)
  • R.A. Greenwald

    Effects of oxygen-derived free radicals on connective tissue macromolecules. Inhibition by copper-penicillamine complex

    J Rheumatol

    (1981)
  • H.C. Freeman et al.

    Metal binding by d-penicillamine: Crystal structure of d-penicillaminato cadmium (II) hydrate

    J Chem Soc Chem Commun

    (1976)
  • Y.S. Wong et al.

    The interaction of organomercury pollutants with biologically important sites: An x-ray study of the 2:1 complex between methyl mercury and penicillamine

    Can J Chem

    (1973)
  • K.J. Franklin et al.

    Preparation, spectroscopic properties and structure of 1-oxo-2,3,6-(d-penicillaminato-n,s,o)-4,5-(d-penicillaminato-n,s) technetium(V)

    Inorg Chem

    (1982)
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    Supported by the Arthritis Society (Canada), National Science and Engineering Research Council, McMaster University Science and Engineering Research Board, and the Medical Research Council of Canada.

    1

    From the Laboratories for Inorganic Medicine, Institute for Materials Research, and the Rheumatic Diseases Unit, McMaster University, Hamilton, Ontario, Canada.

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