Improving the hydrodynamic devices for measuring rheological parameters of liquids.
Keywords:
hydrodynamic rheometer, capillary tube, non-Newtonian fluid, plastic viscosity, yield shear stress, flow index, consistency index, measurement error
Abstract
Variants of diagrams of hydrodynamic devices for measuring the rheological parameters of pseudoplastic and viscoplastic liquids operating in the constant flow mode and the constant pressure drop mode are proposed. Mathematical dependencies are presented for determining the rheological parameters of liquids, which can be implemented in industrial programmable controllers. It is shown that the proposed hydrodynamic devices make it possible to reduce significantly methodological errors of measurement of the rheological parameters of non-Newtonian liquids.
References
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7. Pistun, Ye.P., Matiko, H.F., Krykh, H.B., Matiko, F.D. (2021) Modeling throttle bridge measuring transducers of physical-mechanical parameters of Newtonian fluids. Mathematical Modeling and Computing, 8(3), P. 515-525.
8. Hanna Krykh, Halyna Matiko, Lyudmyla Sadovska. (2015) Evaluation of Influence of Wall Slip on Measurement of Rheological Parameters by Means of a Hydrodynamic Measuring System. Energy Engineering and Control Systems, 1 (2), P. 139-146.
2. Gang Wang, Chi Tan (2017) A contact resonance viscometer based on the electromechanical impedance of a piezoelectric cantilever, Sensors and A 267, P. 401-408.
3. Alderman, N.J., Heywood, N.I. (1999) Selection of on-line viscometers for slurry applications. 14th International Conference on Slurry Handling and Pipeline Transport (Hydrotransport 14), Maastricht, The Netherlands, P. 373-399.
4. White, J.P., Davidson, V.J., Otten, L. (1993) A capillary viscometer for characterization of fluid foods. Food Research International, 26, P. 109-113.
5. Steffе, J.F. (1996) Rheological Methods in Food Process Engineering, 2nd edition. Freeman Press, East Lancing, MI, USA, 418 p.
6. Древецький, В. В., Воєвода, В. В. (2015) Автоматичний контроль фізико-механічних параметрів рідин для розриву пласта. Вісник Інженерної академії України, 1, С. 37-41.
7. Pistun, Ye.P., Matiko, H.F., Krykh, H.B., Matiko, F.D. (2021) Modeling throttle bridge measuring transducers of physical-mechanical parameters of Newtonian fluids. Mathematical Modeling and Computing, 8(3), P. 515-525.
8. Hanna Krykh, Halyna Matiko, Lyudmyla Sadovska. (2015) Evaluation of Influence of Wall Slip on Measurement of Rheological Parameters by Means of a Hydrodynamic Measuring System. Energy Engineering and Control Systems, 1 (2), P. 139-146.
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Published
2022-10-01
How to Cite
Pistun, Y., Matiko, H., & KrykhН. (2022). Improving the hydrodynamic devices for measuring rheological parameters of liquids. COMPUTER-INTEGRATED TECHNOLOGIES: EDUCATION, SCIENCE, PRODUCTION, (48), 5-12. https://doi.org/10.36910/6775-2524-0560-2022-48-01
Section
Automation and Control
