Isoniazid: An Exploratory Review

V. Saini, A. Goyal, Ajay Kumar
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Abstract

Isoniazid (INH) is one of the most successful tuberculosis medications in the market today. In particular, isoniazid is used as a prophylaxis medication to avoid resurgence of illness in those who have underlying Mycobacterium tuberculosis (MTB) infection. The mode of action of isoniazid is complicated and incorporates a number of distinct aspects in which various biomolecular routes are impacted, including mycolic acid production. Catalase-peroxidase (KatG) activates the prodrug isoniazid and enzymes such as β-ketoacyl ACP synthase (KasA) and enoyl acyl carrier protein (ACP) reductase target the active isoniazid products. Various genes in diverse biochemical networks and pathways are involved in the physiological mechanisms of isoniazid resistance. Isoniazid resistance is the most common of all clinical drug-resistant isolates, with incidence in some areas of up to 20 to 30%. In this review article, several existing components that may influence to the complexities of isoniazid function including mechanism of action, resistance mechanisms in MTB, along with their history, different synthetic procedures, uses, dosage forms, side effects, adverse drug reactions, physico-chemical characteristics, ADME properties, contraindications as well as future perspectives are discussed. Studies of pharmacokinetics have found that the cause of the drug mediated hepatotoxicity is possible by metabolism of isoniazid. Because of inter-individual heterogeneity of polymorphism that affect isoniazid metabolism rates, customized medicines may be required in various populations to prevent hepatotoxicity. The isoniazid multidrug combination treatment which would proved to be effective tuberculosis treatment in future. Further exploration is needed for better comprehension of pathogenesis mechanism of Mycobacterium tuberculosis (MTB) and drug resistance studies are required for building up better therapeutics and diagnostic against tuberculosis.
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异烟肼:一项探索性综述
异烟肼(INH)是当今市场上最成功的结核病药物之一。特别是,异烟肼被用作预防药物,以避免潜在结核分枝杆菌(MTB)感染的患者再次发病。异烟肼的作用方式是复杂的,包含了许多不同的方面,其中各种生物分子途径受到影响,包括霉菌酸的产生。过氧化氢酶-过氧化物酶(KatG)激活前药异烟肼,酶如β-酮酰ACP合成酶(KasA)和烯酰酰基载体蛋白(ACP)还原酶靶向活性异烟肼产物。异烟肼抗性的生理机制涉及多种生化网络和途径中的多种基因。异烟肼耐药是所有临床耐药菌株中最常见的,在某些地区发病率高达20%至30%。本文综述了几种可能影响异烟肼功能复杂性的成分,包括异烟肼在结核分枝杆菌中的作用机制、耐药机制,以及它们的历史、不同的合成方法、用途、剂型、副作用、药物不良反应、理化特性、ADME特性、禁忌症和未来的发展前景。药代动力学研究发现,药物介导的肝毒性可能是由异烟肼代谢引起的。由于影响异烟肼代谢率的多态性的个体间异质性,可能需要在不同人群中定制药物来预防病原体毒性。异烟肼多药联合治疗是今后治疗结核病的有效方法。为了更好地了解结核分枝杆菌(MTB)的发病机制,需要进一步的探索和耐药性研究,以建立更好的治疗和诊断结核病。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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