LIU, Z.,
WANG, X.,
YANG, G.,
ZHONG, C.,
ZHANG, R.,
YE, J.,
ZHONG, Y.,
HU, J.,
OZAL, B.,
ZHAO, S. (2020) of their mechanism of action in GBM. We downloaded data from The Cancer Genome Atlas (TCGA) and the
Gene Expression
ЭПИГЕНЕТИЧЕСКИЕ МЕХАНИЗМЫ ПАТОГЕНЕЗА РАССЕЯННОГО СКЛЕРОЗАVAKHITOV, V.A.,
KUZMINA, U.S.,
ZAINULLINA, L.F.,
MAKSIMOVA, M.A.,
ZILEEVA, Z.R.,
VAKHITOVA, Y.V.,
BAKHTIYAROVA, K.Z.,
ВАХИТОВ В.А.,
КУЗЬМИНА У.Ш.,
БАХТИЯРОВА К.З.,
ЗАЙНУЛЛИНА Л.Ф.,
МАКСИМОВА М.А.,
ЗИЛЕЕВА З.Р.,
ВАХИТОВА Ю.В. (2020) mechanisms regulating
gene expression, such as DNA methylation, histone acetylation, and microRNAs, play
BEYLERLI, OZAL,
BEERAKA, NARASIMHA M.,
GAREEV, ILGIZ,
PAVLOV, VALENTIN,
YANG, GUANG,
LIANG, YANCHAO,
ALIEV, GJUMRAKCH (2020) genes. Based on research data on miRNAs over the past 20 years, more than 60% of
genes encoding human
Длинные некодирующие РНК: какие перспективы? of these transcripts play an important role in regulating
gene expression and are involved in various pathologic