Methionine restriction and cancer treatment: a systems biology study of yeast to investigate the possible key players.

Esra Börklü
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Abstract

Background/aim: Dietary restriction, mainly carbon and/or methionine restriction are among the upcoming supporting interventions along with chemotherapy in various cancers. Although dietary restriction has been proven to be beneficial, the main cellular machineries affected by its administration lacks deeper information considerably, a notable pitfall in its use as a personalized nutritional approach.

Materials and methods: In this study, cellular effects of methionine restriction on a yeast model are explored via systems biology approaches. The methionine biosynthesis network, constructed by integrating interaction data with gene ontology terms, was analysed topologically, and proved to be informative about the intertwined relationship of methionine biosynthesis and cancer. Experimentally, effects of methionine restriction on the yeast model were explored in vivo, with transcriptome analyses.

Results: The integrative analysis of the transcriptional data together with the reconstructed network gave insight into cellular machineries such as TOR, MAPK, and sphingolipid-mediated signaling cascades as the mostly responsive cellular pathways in the methionine-restricted cases with Sch9p (functional orthologue of mammalian S6 kinase) being placed at the intersection of these signaling routes.

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蛋氨酸限制和癌症治疗:酵母的系统生物学研究,以调查可能的关键参与者。
背景/目的:饮食限制,主要是碳和/或蛋氨酸限制,是各种癌症化疗中即将到来的辅助干预措施之一。虽然饮食限制已被证明是有益的,但受其管理影响的主要细胞机制缺乏相当深入的信息,这是将其作为个性化营养方法使用的一个显着陷阱。材料和方法:在本研究中,通过系统生物学方法探讨了蛋氨酸限制对酵母模型的细胞效应。将相互作用数据与基因本体术语相结合,构建了蛋氨酸生物合成网络,并对其进行了拓扑分析,证明了蛋氨酸生物合成与癌症的相互交织关系。实验中,通过转录组分析,探讨了蛋氨酸限制对酵母模型的体内影响。结果:转录数据的综合分析以及重建的网络,使我们深入了解了细胞机制,如TOR、MAPK和鞘脂介导的信号级联反应,这些信号通路是在甲硫氨酸受限病例中最敏感的细胞通路,而Sch9p(哺乳动物S6激酶的功能同源物)位于这些信号通路的交叉点。
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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