Solovyev, A.V.,
Barashkov, N.A.,
Bady-Khoo, M.S.,
Zytsar, M.V.,
Posukh, O.L.,
Romanov, G.P.,
Rafailov, A.M.,
Sazonov, N.N.,
Alexeev, A.N.,
Dzhemileva, L.U.,
Khusnutdinova, E.K.,
Fedorova, S.A. (2017) homozygous for mutation c.-23+1G>A from six Eurasian
populations were reconstructed. The structure
spine. 1324 deoxyribonucleic acid (DNA)
samples were genotyped using a fluorescent endpoint genotyping
GILYAZOVA, I.R.,
KLIMENTOVA, E.A.,
BERMISHEVA, M.A.,
KHUSNUTDINOVA, E.K.,
IZMAILOV, A.A.,
GALIMOVA, E.F.,
SAFIULLIN, R.I.,
GALIMOV, S.N.,
V.N. Pavlov,
BULYGIN, K.V. (2020) was performed on 23 paired DNA
samples extracted from kidney tumour tissue and the surrounding normal renal
KLIMENTOVA, E.A.,
GILYAZOVA, I.R.,
BERMISHEVA, M.A.,
BLINNIKOVA, A. M.,
SAFIULLIN, R.I.,
IZMAILOV, A.A.,
YANG, B.,
PAVLOV ., V.N,
KHUSNUTDINOVA, E.K. (2020) .84; 95% CI (1.03–3.31)). Undoubtedly, further study of miRNAs on large groups of
samples is necessary
Gilyazova, I.R.,
Ivanova, E.A.,
Bermisheva, M.A.,
Loginova, M.V.,
Asadullina, D.D.,
Ishemgulov, R.R.,
Mustafin, A.T.,
Pavlov, V.N.,
Khusnutdinova, E.K. (2022) result of comparison allele and genotype frequencies between the general
sample of prostate cancer
KAZANTSEVA, A.V.,
DAVYDOVA, YU.D.,
ENIKEEVA, R.F.,
LOBASKOVA, M.M.,
MUSTAFIN, R.N.,
MALYKH, S.B.,
TAKHIROVA, Z.R.,
KHUSNUTDINOVA, E.K. (2020) of genetic variants in a moderately large
sample, was used. Conclusions: Our preliminary findings indicate
Bikbova, M.M.,
Usubova, E.L.,
Oganisyana, K.Kh.,
Lobov, S.L.,
Khasanovad, R.R.,
Dzhemilevab, L.U.,
Khusnutdinova, E.K. (2017) to individual
populations and to certain ethnic groups in general.