level, which makes it possible to use it for plant
stabilization. The feasibility of combining soil
MINASOV, B.S.,
YAKUPOV, R.R.,
BILYALOV, A.R.,
VALEEV, M.M.,
MINASOV, B.,
MAVLYUTOV, R.,
GARIPOV, I.I.,
YAKUPOV, S.F.,
NAGIMOV, M.I. (2019) of the tested fixation techniques provides
stability under conditions of axial loading comparable
Gareev, I,
Beylerli, O,
Wang, CL,
Sokhatskii, A,
Liang, YC,
Xiang, H,
Liu, CY,
Xu, X,
Guang, Y (2022) fluids. Owing to their
stability and resistance to endogenous RNase activity, circulating miRNAs have
Urakov, Aleksandr L.,
Tyurin, Anton V.,
Shchekin, Vlas S.,
Siddikov, Olim A.,
Abdurakhmanov, Ilhomjon R.,
Gabdrakhimova, Renata A.,
Samorodov, Aleksandr V. (2024) of proteins, their
stability, and also influence the processes of cell death. Involvement in a large number
Bazunova, M.V.,
Lazdin, R.Yu.,
Elinson, M.R.,
Sharafutdinova, L.A.,
Mustakimov, R.A.,
Kulish, E.I. (2022) in the overall surface roughness and a sharp drop in the elastic modulus of the films. The
stabilizing impact
Sufianov, Albert,
Begliarzade, Sema,
Beilerli, Aferin,
Liang, Yanchao,
Ilyasova, Tatiana,
Beylerli, Ozal (2023) due to their biological properties such as conservatism,
stability, and tissue specificity. Many
Beilerli, A.,
Gareev, I.,
Beylerli, O.,
Yang, G.,
V.N. Pavlov,
Aliev, G.,
Ahmad, A. (2022) in understanding their regulatory importance is rather recent. High
stability, abundance and evolutionary
Дьяконов, В.А.,
Джемилева, Л.У.,
Джемилев, У.М.,
D'yakonov, V.A.,
Dzhemileva, L.U.,
Dzhemilev, U.M. (2017) of altering catalytic activity of ferment by
stabilizing the covalent DNA-protein complexes.
The present
Li, Shenglin,
Khoso, Muneer Ahmed,
Xu, He,
Zhang, Chao,
Liu, Ziyang,
Wagan, Sindho,
Dinislam, Khuzin,
Liu, Lijie (2024) ,
stability, and interactions of DNA–protein complexes. This has provided a novel viewpoint regarding