LIU, Z.,
WANG, X.,
YANG, G.,
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YE, J.,
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HU, J.,
OZAL, B.,
ZHAO, S. (2020) RNA-related ceRNA
regulatory network, in glioblastoma (GBM) has not been fully elucidated. The goal
Xu, Dongxiao,
Gareev, Ilgiz,
Beylerli, Ozal,
Pavlov, Valentin,
Le, Huang,
Shi, Huaizhang (2024) differentially expressed mRNAs (DEGs) were pinpointed concerning IA. Subsequently, a miRNA-mRNA
networkJiang, Jianhao,
Gareev, Ilgiz,
Ilyasova, Tatiana,
Shumadalova, Alina,
Du, Weijie,
Yang, Baofeng (2024) -established ceRNA
networks, involving classical interactions between lncRNAs, microRNAs (miRNAs), and messenger
Li, Shenglin,
Khoso, Muneer Ahmed,
Xu, He,
Zhang, Chao,
Liu, Ziyang,
Wagan, Sindho,
Dinislam, Khuzin,
Liu, Lijie (2024) within several signaling cascades and
regulatory networks that influence plant defense responses
Функциональный дуализм транскриптов транспозонов в эволюции геномов эукариот processes into
regulatory networks contributed, simultaneously with the complication of eukaryotes
Bo, C.,
Zhang, H.,
Cao, Y.,
Lu, X.,
Zhang, C.,
Li, S.,
Kong, X.,
Zhang, X.,
Bai, M.,
Tian, K.,
Saitgareeva, A.,
Lyaysan, G.,
Wang, J.,
Ning, S.,
Wang, L. (2021) of transcription factors (TFs) and the relationship among them remain unclear. A TF–miRNA–gene
network (TMGN) of MG
properties. An assumption has been made about the functioning of a species-specific epigenetic
networkSun, Pengfei,
Wang, Jiaqi,
Ilyasova, Tatiana,
Shumadalova, Alina,
Agaverdiev, Murad,
Wang, Chunlei (2023) miRNAs exert their
regulatory functions. Furthermore, an in-depth exploration of the role played
. This leads to dysfunction of the gene
regulatory networks controlled by transposons, aging