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Efficacy and Toxicity of Fexinidazole and Nifurtimox Plus Eflornithine in the Treatment of African Trypanosomiasis: A Systematic Review.非昔硝唑、硝呋莫司联合依氟鸟氨酸治疗非洲锥虫病的疗效与毒性:一项系统评价
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Critical Linkages Between Livestock Production, Livestock Trade and Potential Spread of Human African Trypanosomiasis in Uganda: Bioeconomic Herd Modeling and Livestock Trade Analysis.乌干达畜牧业生产、牲畜贸易与人类非洲锥虫病潜在传播之间的关键联系:生物经济畜群建模与牲畜贸易分析
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An Overview on Target-Based Drug Design against Kinetoplastid Protozoan Infections: Human African Trypanosomiasis, Chagas Disease and Leishmaniases.针对动基体原生动物感染的基于靶点的药物设计概述:人类非洲锥虫病、恰加斯病和利什曼病
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非洲锥虫病药物制剂与耐药性的最新进展

An Update on African Trypanocide Pharmaceutics and Resistance.

作者信息

Kasozi Keneth Iceland, MacLeod Ewan Thomas, Ntulume Ibrahim, Welburn Susan Christina

机构信息

Infection Medicine, Deanery of Biomedical Sciences, College of Medicine and Veterinary Medicine, The University of Edinburgh, Edinburgh, United Kingdom.

School of Medicine, Kabale University, Kabale, Uganda.

出版信息

Front Vet Sci. 2022 Mar 7;9:828111. doi: 10.3389/fvets.2022.828111. eCollection 2022.

DOI:10.3389/fvets.2022.828111
PMID:35356785
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC8959112/
Abstract

African trypanosomiasis is associated with , and pathogens in African animal trypanosomiasis (AAT) while and are responsible for chronic and acute human African trypanosomiasis (HAT), respectively. Suramin sodium suppresses ATP generation during the glycolytic pathway and is ineffective against and infections. Resistance to suramin is associated with pathogen altered transport proteins. Melarsoprol binds irreversibly with pyruvate kinase protein sulfhydryl groups and neutralizes enzymes which interrupts the trypanosome ATP generation. Melarsoprol resistance is associated with the adenine-adenosine transporter, P2, due to point mutations within this transporter. Eflornithine is used in combination with nifurtimox. Resistance to eflornithine is caused by the deletion or mutation of TbAAT6 gene which encodes the transmembrane amino acid transporter that delivers eflornithine into the cell, thus loss of transporter protein results in eflornithine resistance. Nifurtimox alone is regarded as a poor trypanocide, however, it is effective in melarsoprol-resistant gHAT patients. Resistance is associated with loss of a single copy of the genes encoding for nitroreductase enzymes. Fexinidazole is recommended for first-stage and non-severe second-stage illnesses in gHAT and resistance is associated with trypanosome bacterial nitroreductases which reduce fexinidazole. In AAT, quinapyramine sulfate interferes with DNA synthesis and suppression of cytoplasmic ribosomal activity in the mitochondria. Quinapyramine sulfate resistance is due to variations in the potential of the parasite's mitochondrial membrane. Pentamidines create cross-links between two adenines at 4-5 pairs apart in adenine-thymine-rich portions of DNA. It also suppresses type II topoisomerase in the mitochondria of parasites. Pentamidine resistance is due to loss of mitochondria transport proteins P2 and HAPT1. Diamidines are most effective against group and act the P2/TbAT1 transporters. Diminazene aceturate resistance is due to mutations that alter the activity of P2, TeDR40 (). Isometamidium chloride is primarily employed in the early stages of trypanosomiasis and resistance is associated with diminazene resistance. Phenanthridine (homidium bromide, also known as ethidium bromide) acts by a breakdown of the kinetoplast network and homidium resistance is comparable to isometamidium. In humans, the development of resistance and adverse side effects against monotherapies has led to the adoption of nifurtimox-eflornithine combination therapy. Current efforts to develop new prodrug combinations of nifurtimox and eflornithine and nitroimidazole fexinidazole as well as benzoxaborole SCYX-7158 (AN5568) for HAT are in progress while little comparable progress has been done for the development of novel therapies to address trypanocide resistance in AAT.

摘要

非洲锥虫病与非洲动物锥虫病(AAT)中的 和 病原体有关,而 和 分别导致慢性和急性人类非洲锥虫病(HAT)。苏拉明钠抑制糖酵解途径中的ATP生成,对 和 感染无效。对苏拉明的耐药性与病原体转运蛋白改变有关。美拉胂醇与丙酮酸激酶蛋白巯基不可逆结合,中和中断锥虫ATP生成的酶。美拉胂醇耐药性与腺嘌呤 - 腺苷转运蛋白P2有关,原因是该转运蛋白内的点突变。依氟鸟氨酸与硝呋替莫联合使用。对依氟鸟氨酸的耐药性是由TbAAT6基因的缺失或突变引起的,该基因编码将依氟鸟氨酸转运到细胞内的跨膜氨基酸转运蛋白,因此转运蛋白的缺失导致依氟鸟氨酸耐药。单独使用硝呋替莫被认为是一种效果不佳的杀锥虫剂,然而,它对耐美拉胂醇的gHAT患者有效。耐药性与编码硝基还原酶的基因单拷贝缺失有关。非昔硝唑被推荐用于治疗gHAT的第一阶段和非严重的第二阶段疾病,耐药性与可还原非昔硝唑的锥虫细菌硝基还原酶有关。在AAT中,硫酸喹嘧胺干扰DNA合成并抑制线粒体中的细胞质核糖体活性。硫酸喹嘧胺耐药性是由于寄生虫线粒体膜电位的变化。喷他脒在富含腺嘌呤 - 胸腺嘧啶的DNA部分中,在相隔4 - 5对的两个腺嘌呤之间形成交联。它还抑制 寄生虫线粒体中的II型拓扑异构酶。喷他脒耐药性是由于线粒体转运蛋白P2和HAPT1的缺失。双脒类对 组最有效,并作用于P2/TbAT1转运蛋白。乙酰甘氨酸二脒那嗪耐药性是由于改变P2、TeDR40( )活性的突变。氯异脒主要用于锥虫病的早期阶段,耐药性与二脒那嗪耐药性有关。菲啶(溴化乙锭,也称为溴乙锭)通过破坏动质体网络起作用,溴乙锭耐药性与氯异脒相当。在人类中,针对单一疗法的耐药性和不良副作用的出现导致采用硝呋替莫 - 依氟鸟氨酸联合疗法。目前正在努力开发硝呋替莫和依氟鸟氨酸以及硝基咪唑非昔硝唑的新前药组合,以及用于治疗HAT的苯并硼唑SCYX - 7158(AN5568),而在开发解决AAT中杀锥虫剂耐药性的新疗法方面进展甚微。