Isobavachalcone Exhibits Potent Antifungal Efficacy by Inhibiting Enolase Activity and Glycolysis in Candida albicans.

IF 4 2区 医学 Q2 CHEMISTRY, MEDICINAL
ACS Infectious Diseases Pub Date : 2024-08-09 Epub Date: 2024-07-12 DOI:10.1021/acsinfecdis.4c00399
Hao Wu, Zhe Ji, Xin Huang, Liping Li, Sijin Hang, Jinhua Yu, Hui Lu, Yuanying Jiang
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Abstract

Invasive fungal diseases (IFDs) are becoming increasingly acknowledged as a significant concern linked to heightened rates of morbidity and mortality. Regrettably, the available antifungal therapies for managing IFDs are constrained. Emerging evidence indicates that enolase holds promise as a potential target protein for combating IFDs; however, there is currently a deficiency in antifungal medications specifically targeting enolase. This study establishes that isobavachalcone (IBC) exhibits noteworthy antifungal efficacy both in vitro and in vivo. Moreover, our study has demonstrated that IBC effectively targets Eno1 in Candida albicans (CaEno1), resulting in the suppression of the glycolytic pathway. Additionally, our research has indicated that IBC exhibits a higher affinity for CaEno1 compared to human Eno1 (hEno1), with the presence of isoprenoid in the side chain of IBC playing a crucial role in its ability to inhibit enolase activity. These findings contribute to the comprehension of antifungal approaches that target Eno1, identifying IBC as a potential inhibitor of Eno1 in human pathogenic fungi.

Abstract Image

异巴伐醌通过抑制白色念珠菌的烯醇化酶活性和糖酵解作用,显示出强大的抗真菌功效。
人们日益认识到,侵袭性真菌病(IFDs)是与发病率和死亡率上升相关的一个重大问题。令人遗憾的是,目前用于治疗 IFD 的抗真菌疗法非常有限。新的证据表明,烯醇化酶有望成为抗击 IFDs 的潜在靶蛋白;然而,目前缺乏专门针对烯醇化酶的抗真菌药物。本研究证实,异巴伐醌(IBC)在体外和体内都具有显著的抗真菌功效。此外,我们的研究还证明,IBC 能有效靶向白色念珠菌中的 Eno1(CaEno1),从而抑制糖酵解途径。此外,我们的研究还表明,与人类 Eno1(hEno1)相比,IBC 对 CaEno1 具有更高的亲和力,IBC 侧链中存在的异肾上腺素对其抑制烯醇化酶活性的能力起着至关重要的作用。这些发现有助于理解以 Eno1 为靶标的抗真菌方法,确定 IBC 是人类致病真菌中 Eno1 的潜在抑制剂。
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来源期刊
ACS Infectious Diseases
ACS Infectious Diseases CHEMISTRY, MEDICINALINFECTIOUS DISEASES&nb-INFECTIOUS DISEASES
CiteScore
9.70
自引率
3.80%
发文量
213
期刊介绍: ACS Infectious Diseases will be the first journal to highlight chemistry and its role in this multidisciplinary and collaborative research area. The journal will cover a diverse array of topics including, but not limited to: * Discovery and development of new antimicrobial agents — identified through target- or phenotypic-based approaches as well as compounds that induce synergy with antimicrobials. * Characterization and validation of drug target or pathways — use of single target and genome-wide knockdown and knockouts, biochemical studies, structural biology, new technologies to facilitate characterization and prioritization of potential drug targets. * Mechanism of drug resistance — fundamental research that advances our understanding of resistance; strategies to prevent resistance. * Mechanisms of action — use of genetic, metabolomic, and activity- and affinity-based protein profiling to elucidate the mechanism of action of clinical and experimental antimicrobial agents. * Host-pathogen interactions — tools for studying host-pathogen interactions, cellular biochemistry of hosts and pathogens, and molecular interactions of pathogens with host microbiota. * Small molecule vaccine adjuvants for infectious disease. * Viral and bacterial biochemistry and molecular biology.
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