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Sci Transl Med. 2023 Dec 6;15(725):eadi3363. doi: 10.1126/scitranslmed.adi3363.
2
Farnesol as an antifungal agent: comparisons among and haploid and diploid and .法尼醇作为一种抗真菌剂:单倍体和二倍体酿酒酵母之间的比较。
Front Physiol. 2023 Nov 20;14:1207567. doi: 10.3389/fphys.2023.1207567. eCollection 2023.
3
Farnesol remodels the peritoneal cavity immune environment influencing pathogenesis during intra-abdominal infection.法尼醇重塑腹腔免疫环境,影响腹腔感染发病机制。
Infect Immun. 2023 Dec 12;91(12):e0038423. doi: 10.1128/iai.00384-23. Epub 2023 Nov 17.
4
Farnesol prevents aging-related muscle weakness in mice through enhanced farnesylation of Parkin-interacting substrate.法呢醇通过增强 Parkin 相互作用底物的法呢基化来预防小鼠与衰老相关的肌肉无力。
Sci Transl Med. 2023 Aug 30;15(711):eabh3489. doi: 10.1126/scitranslmed.abh3489.
5
Transcriptional regulation of the synthesis and secretion of farnesol in the fungus Candida albicans: examination of the Homann transcription regulator knockout collection.真菌白念珠菌中法呢醇合成和分泌的转录调控:霍曼转录调控因子敲除库的检测。
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生理学奇遇:法呢醇和泛醌。

Physiological adventures in : farnesol and ubiquinones.

机构信息

School of Biological Sciences, University of Nebraska, Lincoln, Nebraska, USA.

Department of Biology and Chemistry, Texas A&M International University, Laredo, Texas, USA.

出版信息

Microbiol Mol Biol Rev. 2024 Mar 27;88(1):e0008122. doi: 10.1128/mmbr.00081-22. Epub 2024 Mar 4.

DOI:10.1128/mmbr.00081-22
PMID:38436263
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC10966945/
Abstract

SUMMARYFarnesol was first identified as a quorum-sensing molecule, which blocked the yeast to hyphal transition in , 22 years ago. However, its interactions with biology are surprisingly complex. Exogenous (secreted or supplied) farnesol can also act as a virulence factor during pathogenesis and as a fungicidal agent triggering apoptosis in other competing fungi. Farnesol synthesis is turned off both during anaerobic growth and in opaque cells. Distinctly different cellular responses are observed as exogenous farnesol levels are increased from 0.1 to 100 µM. Reported changes include altered morphology, stress response, pathogenicity, antibiotic sensitivity/resistance, and even cell lysis. Throughout, there has been a dearth of mechanisms associated with these observations, in part due to the absence of accurate measurement of intracellular farnesol levels (). This obstacle has recently been overcome, and the above phenomena can now be viewed in terms of changing levels and the percentage of farnesol secreted. Critically, two aspects of isoprenoid metabolism present in higher organisms are absent in and likely in other yeasts. These are pathways for farnesol salvage (converting farnesol to farnesyl pyrophosphate) and farnesylcysteine cleavage, a necessary step in the turnover of farnesylated proteins. Together, these developments suggest a unifying model, whereby high, threshold levels of regulate which target proteins are farnesylated or the extent to which they are farnesylated. Thus, we suggest that the diversity of cellular responses to farnesol reflects the diversity of the proteins that are or are not farnesylated.

摘要

法尼醇最初被鉴定为一种群体感应分子,22 年前它可以阻止酵母向菌丝体的转变。然而,它与生物学的相互作用却非常复杂。外源性(分泌或供应)法尼醇在发病过程中也可以作为一种毒力因子,并作为一种杀真菌剂在其他竞争真菌中触发细胞凋亡。在厌氧生长和不透明细胞中,法尼醇的合成都会关闭。当外源法尼醇水平从 0.1 增加到 100µM 时,会观察到截然不同的细胞反应。报道的变化包括形态改变、应激反应、致病性、抗生素敏感性/耐药性,甚至细胞裂解。在整个过程中,由于缺乏与这些观察结果相关的机制,一直存在着缺乏机制的情况,部分原因是缺乏对内源法尼醇水平的准确测量()。这一障碍最近已经克服,现在可以根据改变的水平和分泌的法尼醇百分比来观察上述现象。至关重要的是,高等生物中存在的异戊二烯代谢的两个方面在和其他酵母中都不存在。这些途径是法尼醇回收(将法尼醇转化为法尼醇焦磷酸)和法尼基半胱氨酸裂解的途径,这是法尼酰化蛋白周转所必需的步骤。综上所述,这些发展表明了一个统一的模型,即高阈值水平的调节哪些靶蛋白被法尼酰化或它们被法尼酰化的程度。因此,我们认为细胞对法尼醇的反应多样性反映了被法尼酰化或未被法尼酰化的蛋白质的多样性。