Vafina, G.F.,
Uzbekov, A.R.,
Gabdrakhmanova, S.F.,
Makara, N.S.,
Zarudii, F.S.,
Galin, F.Z. (2016) The antihypoxic activity of a series of quinopimaric
acid scaffold derivatives was studied
BAYMIEV, A.K.,
KULUEV, B.R.,
SHVETS, K.Y.,
YAMIDANOV, R.S.,
MATNIYAZOV, R.T.,
CHEMERIS, D.A.,
IVANENKOV, Y.A.,
CHEMERIS, A.V.,
ZUBOV, V.V.,
ALEKSEEV, Y.I.,
MAVZYUTOV, A.R. (2020) Specific amplification of nucleic
acids is a convenient and quick alternative to the culture
Valeeva, L.A.,
Davlyatova, G.G.,
Shabalina, Yu.V.,
Isakova, A.V.,
Khaliullin, F.A.,
Nikitina, I.L. (2016) 2-[3-Methyl-7-(thietanyl-3)-1-ethylxanthinyl-8-thio]acetic
acid hydrazide was synthesized in two
Salimova, E.V.,
Mamaev, A.G.,
Tret'yakova, E. V.,
Kukovinets, O. S.,
Mavzyutov, A. R.,
Shvets, K. Yu.,
Parfenova, L. V. (2018) SYNTHESIS AND BIOLOGICAL ACTIVITY OF CYANOETHYL DERIVATIVES OF FUSIDIC
ACIDДьяконов, В.А.,
Джемилева, Л.У.,
Джемилев, У.М.,
D'yakonov, V.A.,
Dzhemileva, L.U.,
Dzhemilev, U.M. (2017) , camptothecin, podophyllotoxin, anthracyclines, polyene
acids, and many others.
However, along
]acetic
acid hydrazide (laboratory code M-20). Neuropharmacological analysis showed that M-20 at doses of 0