TY  - JOUR
AU  - Kartalović, Nenad M.
AU  - Đekić, Saška D.
AU  - Đekić, Saša B.
AU  - Nikezić, Dušan P.
AU  - Ramadani, Uzahir
PY  - 2021
UR  - https://vinar.vin.bg.ac.rs/handle/123456789/10067
AB  - The paper considers the application of nuclear magnetic resonance for measurement of fluid-flow. The paper is of an experimental nature. Flowmeter based on nuclear magnetic resonance is extremely precise. The combined measurement uncertainty can be 0.1 %. Such a value of measurement uncertainty indicates that it is a matter of a deterministic and not of a stochastic quantity. This high degree of reliability of the method is theoretically and mathematically described. The paper presents a measurement scheme for flow measurement. Water flow measurement was performed on the principle of nuclear magnetic resonance and on the basis of tritiated water (which is considered to be the most accurate classical method). The obtained results show that the measurement of flow based on nuclear magnetic resonance is more accurate (especially at higher flow). This is explained by the higher inertial mass of HTO tritiated water molecules than the standard H2 O mass and the possible transition of tritiated water to H3HeO. In this way, it has been proven that tracing water based on nuclear magnetic resonance is the only real tracing of water by water. The obtained results show that tracing water with tritiated or heavy water is not tracing water by water which is explained by different inertial masses.
T2  - Nuclear Technology and Radiation Protection
T1  - Possibility of application nuclear magnetic resonance for measurement of fluid-flow
VL  - 36
IS  - 2
SP  - 168
EP  - 173
DO  - 10.2298/NTRP210614017K
ER  - 

@article{
author = "Kartalović, Nenad M. and Đekić, Saška D. and Đekić, Saša B. and Nikezić, Dušan P. and Ramadani, Uzahir",
year = "2021",
abstract = "The paper considers the application of nuclear magnetic resonance for measurement of fluid-flow. The paper is of an experimental nature. Flowmeter based on nuclear magnetic resonance is extremely precise. The combined measurement uncertainty can be 0.1 %. Such a value of measurement uncertainty indicates that it is a matter of a deterministic and not of a stochastic quantity. This high degree of reliability of the method is theoretically and mathematically described. The paper presents a measurement scheme for flow measurement. Water flow measurement was performed on the principle of nuclear magnetic resonance and on the basis of tritiated water (which is considered to be the most accurate classical method). The obtained results show that the measurement of flow based on nuclear magnetic resonance is more accurate (especially at higher flow). This is explained by the higher inertial mass of HTO tritiated water molecules than the standard H2 O mass and the possible transition of tritiated water to H3HeO. In this way, it has been proven that tracing water based on nuclear magnetic resonance is the only real tracing of water by water. The obtained results show that tracing water with tritiated or heavy water is not tracing water by water which is explained by different inertial masses.",
journal = "Nuclear Technology and Radiation Protection",
title = "Possibility of application nuclear magnetic resonance for measurement of fluid-flow",
volume = "36",
number = "2",
pages = "168-173",
doi = "10.2298/NTRP210614017K"
}

Kartalović, N. M., Đekić, S. D., Đekić, S. B., Nikezić, D. P.,& Ramadani, U.. (2021). Possibility of application nuclear magnetic resonance for measurement of fluid-flow. in Nuclear Technology and Radiation Protection, 36(2), 168-173.
https://doi.org/10.2298/NTRP210614017K

Kartalović NM, Đekić SD, Đekić SB, Nikezić DP, Ramadani U. Possibility of application nuclear magnetic resonance for measurement of fluid-flow. in Nuclear Technology and Radiation Protection. 2021;36(2):168-173.
doi:10.2298/NTRP210614017K .

Kartalović, Nenad M., Đekić, Saška D., Đekić, Saša B., Nikezić, Dušan P., Ramadani, Uzahir, "Possibility of application nuclear magnetic resonance for measurement of fluid-flow" in Nuclear Technology and Radiation Protection, 36, no. 2 (2021):168-173,
https://doi.org/10.2298/NTRP210614017K . .