History of the development of azole derivatives

被引:302
作者
Maertens, JA [1 ]
机构
[1] Univ Hosp Gasthuisberg, Dept Haematol, B-3000 Louvain, Belgium
关键词
antifungal; azole; overview;
D O I
10.1111/j.1470-9465.2004.00841.x
中图分类号
R51 [传染病];
学科分类号
100401 ;
摘要
Until the 1940s, relatively few agents were available for the treatment of systemic fungal infections. The development of the polyene antifungals represented a major advance in medical mycology. Although amphotericin B quickly became the mainstay of therapy for serious infections, its use was associated with infusion-related side-effects and dose-limiting nephrotoxicity. The continued search for new and less toxic antifungals led to the discovery of the azoles several decades later. Ketoconazole, the first available compound for the oral treatment of systemic fungal infections, was released in the early 1980s. For almost a decade, ketoconazole was regarded as the drug of choice in nonlife-threatening endemic mycoses. The introduction of the first-generation triazoles represented a second major advance in the treatment of fungal infections. Both fluconazole and itraconazole displayed a broader spectrum of antifungal activity than the imidazoles and had a markedly improved safety profile compared with amphotericin B and ketoconazole. Despite widespread use, however, these agents became subject to a number of clinically important limitations related to their suboptimal spectrum of activity, the development of resistance, the induction of hazardous drug-drug interactions, their less than optimal pharmacokinetic profile (itraconazole capsules), and toxicity. In order to overcome these limitations, several analogues have been developed. These so-called 'second-generation' triazoles, including voriconazole, posaconazole and ravuconazole, have greater potency and possess increased activity against resistant and emerging pathogens, in particular against Aspergillus spp. If the toxicity profile of these agents is comparable to or better than that of the first-generation triazoles and drug interactions remain manageable, then these compounds represent a true expansion of our antifungal arsenal.
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页码:1 / 10
页数:10
相关论文
共 67 条
  • [51] REX JH, 1995, ANTIMICROB AGENTS CH, V39, P1, DOI 10.1128/AAC.39.1.1
  • [52] Voriconazole: A new triazole antifungal
    Sabo, JA
    Abdel-Rahman, SM
    [J]. ANNALS OF PHARMACOTHERAPY, 2000, 34 (09) : 1032 - 1043
  • [53] Resistance of Candida species to antifungal agents:: molecular mechanisms and clinical consequences
    Sanglard, D
    Odds, FC
    [J]. LANCET INFECTIOUS DISEASES, 2002, 2 (02) : 73 - 85
  • [54] IN-VITRO ANTIFUNGAL ACTIVITY OF CLOTRIMAZOLE (BAY B 5097)
    SHADOMY, S
    [J]. INFECTION AND IMMUNITY, 1971, 4 (02) : 143 - &
  • [55] Current and emerging azole antifungal agents
    Sheehan, DJ
    Hitchcock, CA
    Sibley, CM
    [J]. CLINICAL MICROBIOLOGY REVIEWS, 1999, 12 (01) : 40 - +
  • [56] The evolution of Candida species and fluconazole susceptibility among oral and vaginal isolates recovered from human immunodeficiency virus (HIV)-seropositive and at-risk HIV-seronegative women
    Sobel, JD
    Ohmit, SE
    Schuman, P
    Klein, RS
    Mayer, K
    Duerr, A
    Vazquez, JA
    Rompalo, A
    [J]. JOURNAL OF INFECTIOUS DISEASES, 2001, 183 (02) : 286 - 293
  • [57] Antifungal agents. Part II. The azoles
    Terrell, CL
    [J]. MAYO CLINIC PROCEEDINGS, 1999, 74 (01) : 78 - 100
  • [58] TETTENBORN D, 1974, POSTGRAD MED J, V50, P17
  • [59] Diel methane emission patterns from Scirpus lacustris and Phragmites australis
    Van der Nat, FJWA
    Middelburg, JJ
    Van Meteren, D
    Wielemakers, A
    [J]. BIOGEOCHEMISTRY, 1998, 41 (01) : 1 - 22
  • [60] CYTOCHROME-P-450 - TARGET FOR ITRACONAZOLE
    VANDENBOSSCHE, H
    BELLENS, D
    COOLS, W
    GORRENS, J
    MARICHAL, P
    VERHOEVEN, H
    WILLEMSENS, G
    DECOSTER, R
    BEERENS, D
    HAELTERMAN, C
    COENE, MC
    LAUWERS, W
    LEJEUNE, L
    [J]. DRUG DEVELOPMENT RESEARCH, 1986, 8 (1-4) : 287 - 298