graphene layers into copper crystal reduces the
thermal conductivity of the whole composite
Kubenova, Marzhan,
Balapanov, Malik,
Kuterbekov, Kairat,
Ishembetov, Rais,
Almukhametov, Rafail,
Bekmyrza, Kenzhebatyr,
Akhmetgaliev, Bulat,
Sharipov, Talgat,
Zeleev, Marat,
Kabyshev, Asset,
Mukhanova, Zhamal,
Baikhozhaeva, Bakhytkul,
Yakshibaev, Robert (2024) thermal conductivity decreases with increasing temperature from 0.61 to 0.22 W∙K−1m−1 in the range of 300
Kubenova, M.M.,
Kuterbekov, K.A.,
Balapanov, M.Kh.,
Ishembetov, R.Kh.,
Akhmetgaliev, B.M.,
Kabyshev, A.M.,
Bekmyrza, K.Zh.,
Zeleev, M.Kh.,
Palymbetov, R.Sh.,
Baikhozhaeva, B.U. (2023) The paper presents the results of the studies of
thermal properties of nanocrystalline superionic
of degrees of freedom. Bundles of CNTs of sufficiently large diameter exhibit negative lateral
thermalKALINICHEV, A.A.,
KUROCHKIN, M.A.,
KOLOMYTSEV, A.Y.,
KOLESNIKOV, I.E.,
KHASBIEVA, R.S.,
KOLESNIKOV, E.Y.,
LÄHDERANTA, E. (2019) synthesized via the melt-quenching technique has been presented as an optical thermometer. The
thermal sensing
YB 3+ /ER 3+− CODOPED GEO 2 –PBO–PBF 2 GLASS CERAMICS FOR RATIOMETRIC UPCONVERSION TEMPERATURE SENSING BASED ON THERMALLY AND NON-THERMALLY COUPLED LEVELSKalinichev, A.A.,
Kurochkin, M.A.,
Kolomytsev, A.Y.,
Khasbieva, R.S.,
Kolesnikov, E.Y.,
Lähderanta, E.,
Kolesnikov, I.E. (2019) . The
thermal sensing was designed based on the temperature dependent fluorescence intensity ratios of
thermally