Thermal conductivity and dynamic viscosity of highly mineralized water

Further development in the field of geothermal energy require reliable reference data on the thermophysical properties of geothermal waters, namely, on the thermal conductivity and viscosity of aqueous salt solutions at temperatures of 293–473 K, pressures Ps = 100 MPa, and concentrations of 0–25 wt...

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Autores:
Mohamad, Dadang
Abed Jawad, Mohammed
Grimaldo Guerrero, John William
Taufik Rachman, Tonton
Huynh Tan, Hoi
Shaikhlislamov, Albert Kh.
kadhim, Mustafa Mohammed
Hasan, Saif Yaseen
Surendar, A.
Tipo de recurso:
Article of journal
Fecha de publicación:
2022
Institución:
Corporación Universidad de la Costa
Repositorio:
REDICUC - Repositorio CUC
Idioma:
eng
OAI Identifier:
oai:repositorio.cuc.edu.co:11323/9120
Acceso en línea:
https://hdl.handle.net/11323/9120
https://repositorio.cuc.edu.co/
Palabra clave:
Thermal conductivity
Dynamic viscosity
Water-salt systems
Aqueous solutions of salts
High pressure
Multicomponent water-salt systems
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openAccess
License
Atribución 4.0 Internacional (CC BY 4.0)
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oai_identifier_str oai:repositorio.cuc.edu.co:11323/9120
network_acronym_str RCUC2
network_name_str REDICUC - Repositorio CUC
repository_id_str
dc.title.eng.fl_str_mv Thermal conductivity and dynamic viscosity of highly mineralized water
title Thermal conductivity and dynamic viscosity of highly mineralized water
spellingShingle Thermal conductivity and dynamic viscosity of highly mineralized water
Thermal conductivity
Dynamic viscosity
Water-salt systems
Aqueous solutions of salts
High pressure
Multicomponent water-salt systems
title_short Thermal conductivity and dynamic viscosity of highly mineralized water
title_full Thermal conductivity and dynamic viscosity of highly mineralized water
title_fullStr Thermal conductivity and dynamic viscosity of highly mineralized water
title_full_unstemmed Thermal conductivity and dynamic viscosity of highly mineralized water
title_sort Thermal conductivity and dynamic viscosity of highly mineralized water
dc.creator.fl_str_mv Mohamad, Dadang
Abed Jawad, Mohammed
Grimaldo Guerrero, John William
Taufik Rachman, Tonton
Huynh Tan, Hoi
Shaikhlislamov, Albert Kh.
kadhim, Mustafa Mohammed
Hasan, Saif Yaseen
Surendar, A.
dc.contributor.author.spa.fl_str_mv Mohamad, Dadang
Abed Jawad, Mohammed
Grimaldo Guerrero, John William
Taufik Rachman, Tonton
Huynh Tan, Hoi
Shaikhlislamov, Albert Kh.
kadhim, Mustafa Mohammed
Hasan, Saif Yaseen
Surendar, A.
dc.subject.proposal.eng.fl_str_mv Thermal conductivity
Dynamic viscosity
Water-salt systems
Aqueous solutions of salts
High pressure
Multicomponent water-salt systems
topic Thermal conductivity
Dynamic viscosity
Water-salt systems
Aqueous solutions of salts
High pressure
Multicomponent water-salt systems
description Further development in the field of geothermal energy require reliable reference data on the thermophysical properties of geothermal waters, namely, on the thermal conductivity and viscosity of aqueous salt solutions at temperatures of 293–473 K, pressures Ps = 100 MPa, and concentrations of 0–25 wt.%. Given the lack of data and models, especially for the dynamic viscosity of aqueous salt solutions at a pressure of above 40 MPa, generalized formulas are presented here, by which these gaps can be filled. The article presents a generalized formula for obtaining reliable data on the thermal conductivity of water aqueous solutions of salts for Ps = 100 MPa, temperatures of 293–473 K and concentrations of 0%–25% (wt.%), as well as generalized formulas for the dynamic viscosity of water up to pressures of 500 MPa and aqueous solutions of salts for Ps = 100 MPa, temperatures 333–473 K, and concentration 0%–25%. The obtained values agree with the experimental data within 1.6%.
publishDate 2022
dc.date.accessioned.none.fl_str_mv 2022-04-07T20:47:56Z
dc.date.available.none.fl_str_mv 2022-04-07T20:47:56Z
dc.date.issued.none.fl_str_mv 2022
dc.type.spa.fl_str_mv Artículo de revista
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dc.type.content.spa.fl_str_mv Text
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dc.identifier.issn.spa.fl_str_mv 1555-256X
dc.identifier.uri.spa.fl_str_mv https://hdl.handle.net/11323/9120
dc.identifier.doi.spa.fl_str_mv 10.32604/fdmp.2022.019485
dc.identifier.eissn.spa.fl_str_mv 1555-2578
dc.identifier.instname.spa.fl_str_mv Corporación Universidad de la Costa
dc.identifier.reponame.spa.fl_str_mv REDICUC - Repositorio CUC
dc.identifier.repourl.spa.fl_str_mv https://repositorio.cuc.edu.co/
identifier_str_mv 1555-256X
10.32604/fdmp.2022.019485
1555-2578
Corporación Universidad de la Costa
REDICUC - Repositorio CUC
url https://hdl.handle.net/11323/9120
https://repositorio.cuc.edu.co/
dc.language.iso.none.fl_str_mv eng
language eng
dc.relation.ispartofjournal.spa.fl_str_mv Fluid Dynamics and Materials Processing
dc.relation.references.spa.fl_str_mv 1. Zainal, A. G., Yulianto, H., Yanfika, H. (2021). Financial benefits of the environmentally friendly aquaponic media system. IOP Conference Series: Earth and Environmental Science, vol. 739, 012024. IOP Publishing.
2. Gashi, F., Dreshaj, E., Troni, N., Maxhuni, A., Laha, F. (2020). Determination of heavy metal contents in water of Llapi River (Kosovo). A case study of correlations coefficients. European Chemical Bulletin, 9(2), 43–47. DOI10.17628/ecb.2020.9.43-47.
3. Chen, H., Bokov, D., Chupradit, S., Hekmatifar, M., Mahmoud, M. Z. et al. (2021). Combustion process of nanofluids consisting of oxygen molecules and aluminum nanoparticles in a copper nanochannel using molecular dynamics simulation. Case Studies in Thermal Engineering, 28(3), 101628. DOI 10.1016/j.csite.2021.101628.
4. Prischepa, O. M., Nefedov, Y. V., Ibatullin, A. K. (2020). Raw material source of hydrocarbons of the arctic zone of russia. Periodico Tche Quimica, 17(36), 506–526. DOI 10.52571/PTQ.v17.n36.2020.521_Periodico36_pgs_506_526.pdf.
5. Al-Hassani, K. A., Alam, M. S., Rahman, M. M. (2021). Numerical simulations of hydromagnetic mixed convection flow of nanofluids inside a triangular cavity on the basis of a two-component nonhomogeneous mathematical model. Fluid Dynamics & Materials Processing, 17(1), 1–20. DOI 10.32604/fdmp.2021.013497.
6. Alkhasov, A. B., Magomedov, U. B., Magomedov, M. M. S. (2011). Thermal conductivity of aqueous solutions of salts at high state parameters. Natural and Technical Sciences, 1(51), 23–26.
7. Yang, S., Jasim, S. A., Bokov, D., Chupradit, S., Nakhjiri, A. T. et al. (2021). Membrane distillation technology for molecular separation: A review on the fouling, wetting and transport phenomena. Journal of Molecular Liquids, 565(2), 118115. DOI 10.1016/j.molliq.2021.118115.
8. Anggono, A. D., Elveny, M., Abdelbasset, W. K., Petrov, A. M., Ershov, K. A. et al. (2021). Creep deformation of Zr55Co25Al15Ni5 bulk metallic glass near glass transition temperature: A nanoindentation study. Transactions of the Indian Institute of Metals, 1–8.
9. Nourdanesh, N., Ranjbar, F. (2022). Investigation on heat transfer performance of a novel active method heat sink to maximize the efficiency of thermal energy storage systems. Journal of Energy Storage, 45(12), 103779. DOI 10.1016/j.est.2021.103779.
10. Nourdanesh, N., Ranjbar, F. (2021). Introduction of a novel electric field-based plate heat sink for heat transfer enhancement of thermal systems. International Journal of Numerical Methods for Heat & Fluid Flow, 61. DOI 10.1108/HFF-08-2021-0531.
11. Magomedov, U. B. (2005). Thermal conductivity of aqueous solutions of inorganic substances at high temperatures, pressures and concentrations. Materials of the International Conference Renewable Energy: Problems and Prospects, vol. 2, pp. 115–123. Makhachkala: Delovoi mir.
12. Mozaffari, M., D’Orazio, A., Karimipour, A., Abdollahi, A., Safaei, M. R. (2019). Lattice Boltzmann method to simulate convection heat transfer in a microchannel under heat flux: Gravity and inclination angle on slip-velocity. International Journal of Numerical Methods for Heat & Fluid Flow, 30(6), 3371–3398. DOI 10.1108/HFF-12-2018-0821.
13. Abdulagatov, I. M., Azizov, N. D. (2006). Viscosity of aqueous calcium chloride solutions at high temperatures and high pressures. Fluid Phase Equilibria, 240(2), 204–219. DOI 10.1016/j.fluid.2005.12.036.
14. Sun, K., Hu, X., Li, D., Zhang, G., Zhao, K. et al. (2021). Analysis of bubble behavior in a horizontal rectangular channel under subcooled flow boiling conditions. Fluid Dynamics & Materials Processing, 17(1), 81–95. DOI10.32604/fdmp.2021.013895.
15. Han, Y. (2020). Investigation of reynolds number effects on high-speed trains using low temperature wind tunnel test facility. Fluid Dynamics & Materials Processing, 16(1), 1–19. DOI 10.32604/fdmp.2020.06525.
16. Abdulagatov, I. M., Azizov, N. D. (2005). Viscosity of aqueous LiI solutions at 293-523 K and 0.1–40 MPa. Thermochimica Acta, 439(1–2), 8–20. DOI 10.1016/j.tca.2005.08.036.
17. Abdulagatov, I. M., Zeinalova, A. B., Azizov, N. D. (2004). Viscosity of the aqueous Ca (NO3)2 solutions at temperatures 298 to 573 K and at pressures up to 40 MPa. Journal of Chemical Engineering Data, 49(5), 1444–1450. DOI 10.1021/je049853n.
18. Abdulagatov, I. M., Zeinalova, A. B., Azizov, N. D. (2006). Experimental viscosity B-coefficients of aqueous LiCl solutions. Journal of Molecular Liquids, 126(1–3), 75–88. DOI 10.1016/j.molliq.2005.10.006.
19. Akmedova-Azizova, L. A. (2006). Thermal conductivity and viscosity of aqueous Mg(NO3)2, Ca(NO3)2 and Ba (NO3)2 solutions at high temperatures and high pressures. Journal of Chemical Engineering Data, 54, 510–517.
20. Tian, Z., Bagherzadeh, S. A., Ghani, K., Karimipour, A., Abdollahi, A. et al. (2019). Nonlinear function estimation fuzzy system (NFEFS) as a novel statistical approach to estimate nanofluids’ thermal conductivity according to empirical data. International Journal of Numerical Methods for Heat & Fluid Flow, 30(6), 3267–3281. DOI 10.1108/HFF-12-2018-0768.
21. Hoseini, M., Haghtalab, A., Navid Family, M. (2020). Elongational behavior of silica nanoparticle-filled lowdensity polyethylene/polylactic acid blends and their morphology. Rheologica Acta, 59(9), 621–630. DOI10.1007/s00397-020-01225-5.
22. Abdulagatov, I. M., Zeinalova, A. B., Azizov, N. D. (2005). Viscosity of aqueous Na2SO4 solutions at temperatures from (298 to 573) K and at pressures up to 40 MPa. Fluid Phase Equilibria, 227(1), 57–70. DOI 10.1016/j.fluid.2004.10.028.
23. Zeynalova, A. B., Iskenderov, A. I., Tairov, A. D., Akhundov, T. S. (1991). Dynamic viscosity of calcium nitrate. Oil and Gas Studies, 1, 53–54.
24. Nikfarjam, A., Raji, H., Hashemi, M. M. (2019). Label-free impedance-based detection of encapsulated single cells in droplets in low cost and transparent microfluidic chip. Journal of Bioengineering Research, 1(4), 29–37.
25. Ahmadizadeh, P., Mashadi, B., Lodaya, D. (2017). Energy management of a dual-mode power-split powertrain based on the Pontryagin’s minimum principle. IET Intelligent Transport Systems, 11(9), 561–571. DOI 10.1049/iet-its.2016.0281.
26. Sokolov, B., Potryasaev, S., Serova, E., Ipatov, Y., Andrianov, Y. (2019). Informative and formal description of structure dynamics control task of cyber-physical systems. Journal of Applied Engineering Science, 17(1), 61– 64. DOI 10.5937/jaes16-18716.
27. Bakhtiari, R., Kamkari, B., Afrand, M., Abdollahi, A. (2021). Preparation of stable TiO2-Graphene/Water hybrid nanofluids and development of a new correlation for thermal conductivity. Powder Technology, 385, 466–477. DOI 10.1016/j.powtec.2021.03.010.
28. Deryagin, A. V., Krasnova, L. A., Sahabiev, I. A., Samedov, M. N., Shurygin, V. Y. (2019). Scientific and educational experiment in the engineering training of students in the bachelor’s degree program in energy production. International Journal of Innovative Technology and Exploring Engineering, 8(8), 572–577.
29. Kuzmin, P. A., Bukharina, I. L., Kuzmina, A. M. (2016). The activity of copper-containing enzymes in the birch leaves in the conditions of the built environment. International Journal of Pharmacy and Technology, 8(4), 24608–24614.
30. Fedorov, S. N., Smolnikov, A. D., Palyanitsin, P. S. (2020). Metrology and standardization in pressureless flows. Journal of Physics: Conference Series, 1515(5), 052069. DOI 10.1088/1742-6596/1515/5/052069.
31. Movchan, I. B., Yakovleva, A. A., Daniliev, S. M. (2019). Parametric decoding and approximated estimations in engineering geophysics with the localization of seismic risk zones on the example of northern part of kola peninsula. 15th Conference and Exhibition Engineering and Mining Geophysics, pp. 188–198. Gelendzhik.
32. He, W., Bagherzadeh, S. A., Tahmasebi, M., Abdollahi, A., Bahrami, M. et al. (2019). A new method of black-box fuzzy system identification optimized by genetic algorithm and its application to predict mixture thermal properties. International Journal of Numerical Methods for Heat & Fluid Flow, 30(5), 2485–2499. DOI10.1108/HFF-12-2018-0758.
33. Gerdroodbary, M. B., Ganji, D. D., Moradi, R., Abdollahi, A. (2018). Application of knudsen thermal force for detection of CO2 in low-pressure micro gas sensor. Fluid Dynamics, 53(6), 812–823. DOI 10.1134/S0015462818060149.
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spelling Mohamad, DadangAbed Jawad, MohammedGrimaldo Guerrero, John WilliamTaufik Rachman, TontonHuynh Tan, HoiShaikhlislamov, Albert Kh.kadhim, Mustafa MohammedHasan, Saif YaseenSurendar, A.2022-04-07T20:47:56Z2022-04-07T20:47:56Z20221555-256Xhttps://hdl.handle.net/11323/912010.32604/fdmp.2022.0194851555-2578Corporación Universidad de la CostaREDICUC - Repositorio CUChttps://repositorio.cuc.edu.co/Further development in the field of geothermal energy require reliable reference data on the thermophysical properties of geothermal waters, namely, on the thermal conductivity and viscosity of aqueous salt solutions at temperatures of 293–473 K, pressures Ps = 100 MPa, and concentrations of 0–25 wt.%. Given the lack of data and models, especially for the dynamic viscosity of aqueous salt solutions at a pressure of above 40 MPa, generalized formulas are presented here, by which these gaps can be filled. The article presents a generalized formula for obtaining reliable data on the thermal conductivity of water aqueous solutions of salts for Ps = 100 MPa, temperatures of 293–473 K and concentrations of 0%–25% (wt.%), as well as generalized formulas for the dynamic viscosity of water up to pressures of 500 MPa and aqueous solutions of salts for Ps = 100 MPa, temperatures 333–473 K, and concentration 0%–25%. The obtained values agree with the experimental data within 1.6%.16 páginasapplication/pdfengTech Science PressUnited StatesAtribución 4.0 Internacional (CC BY 4.0)Copyright© 2020 Tech Science Presshttps://creativecommons.org/licenses/by/4.0/info:eu-repo/semantics/openAccesshttp://purl.org/coar/access_right/c_abf2Thermal conductivity and dynamic viscosity of highly mineralized waterArtículo de revistahttp://purl.org/coar/resource_type/c_6501http://purl.org/coar/resource_type/c_2df8fbb1Textinfo:eu-repo/semantics/articlehttp://purl.org/redcol/resource_type/ARTinfo:eu-repo/semantics/acceptedVersionhttps://www.techscience.com/fdmp/v18n3/46824Fluid Dynamics and Materials Processing1. Zainal, A. G., Yulianto, H., Yanfika, H. (2021). Financial benefits of the environmentally friendly aquaponic media system. IOP Conference Series: Earth and Environmental Science, vol. 739, 012024. IOP Publishing.2. Gashi, F., Dreshaj, E., Troni, N., Maxhuni, A., Laha, F. (2020). Determination of heavy metal contents in water of Llapi River (Kosovo). A case study of correlations coefficients. European Chemical Bulletin, 9(2), 43–47. DOI10.17628/ecb.2020.9.43-47.3. Chen, H., Bokov, D., Chupradit, S., Hekmatifar, M., Mahmoud, M. Z. et al. (2021). Combustion process of nanofluids consisting of oxygen molecules and aluminum nanoparticles in a copper nanochannel using molecular dynamics simulation. Case Studies in Thermal Engineering, 28(3), 101628. DOI 10.1016/j.csite.2021.101628.4. Prischepa, O. M., Nefedov, Y. V., Ibatullin, A. K. (2020). Raw material source of hydrocarbons of the arctic zone of russia. Periodico Tche Quimica, 17(36), 506–526. DOI 10.52571/PTQ.v17.n36.2020.521_Periodico36_pgs_506_526.pdf.5. Al-Hassani, K. A., Alam, M. S., Rahman, M. M. (2021). Numerical simulations of hydromagnetic mixed convection flow of nanofluids inside a triangular cavity on the basis of a two-component nonhomogeneous mathematical model. Fluid Dynamics & Materials Processing, 17(1), 1–20. DOI 10.32604/fdmp.2021.013497.6. Alkhasov, A. B., Magomedov, U. B., Magomedov, M. M. S. (2011). Thermal conductivity of aqueous solutions of salts at high state parameters. Natural and Technical Sciences, 1(51), 23–26.7. Yang, S., Jasim, S. A., Bokov, D., Chupradit, S., Nakhjiri, A. T. et al. (2021). Membrane distillation technology for molecular separation: A review on the fouling, wetting and transport phenomena. Journal of Molecular Liquids, 565(2), 118115. DOI 10.1016/j.molliq.2021.118115.8. Anggono, A. D., Elveny, M., Abdelbasset, W. K., Petrov, A. M., Ershov, K. A. et al. (2021). Creep deformation of Zr55Co25Al15Ni5 bulk metallic glass near glass transition temperature: A nanoindentation study. Transactions of the Indian Institute of Metals, 1–8.9. Nourdanesh, N., Ranjbar, F. (2022). Investigation on heat transfer performance of a novel active method heat sink to maximize the efficiency of thermal energy storage systems. Journal of Energy Storage, 45(12), 103779. DOI 10.1016/j.est.2021.103779.10. Nourdanesh, N., Ranjbar, F. (2021). Introduction of a novel electric field-based plate heat sink for heat transfer enhancement of thermal systems. International Journal of Numerical Methods for Heat & Fluid Flow, 61. DOI 10.1108/HFF-08-2021-0531.11. Magomedov, U. B. (2005). Thermal conductivity of aqueous solutions of inorganic substances at high temperatures, pressures and concentrations. Materials of the International Conference Renewable Energy: Problems and Prospects, vol. 2, pp. 115–123. Makhachkala: Delovoi mir.12. Mozaffari, M., D’Orazio, A., Karimipour, A., Abdollahi, A., Safaei, M. R. (2019). Lattice Boltzmann method to simulate convection heat transfer in a microchannel under heat flux: Gravity and inclination angle on slip-velocity. International Journal of Numerical Methods for Heat & Fluid Flow, 30(6), 3371–3398. DOI 10.1108/HFF-12-2018-0821.13. Abdulagatov, I. M., Azizov, N. D. (2006). Viscosity of aqueous calcium chloride solutions at high temperatures and high pressures. Fluid Phase Equilibria, 240(2), 204–219. DOI 10.1016/j.fluid.2005.12.036.14. Sun, K., Hu, X., Li, D., Zhang, G., Zhao, K. et al. (2021). Analysis of bubble behavior in a horizontal rectangular channel under subcooled flow boiling conditions. Fluid Dynamics & Materials Processing, 17(1), 81–95. DOI10.32604/fdmp.2021.013895.15. Han, Y. (2020). Investigation of reynolds number effects on high-speed trains using low temperature wind tunnel test facility. Fluid Dynamics & Materials Processing, 16(1), 1–19. DOI 10.32604/fdmp.2020.06525.16. Abdulagatov, I. M., Azizov, N. D. (2005). Viscosity of aqueous LiI solutions at 293-523 K and 0.1–40 MPa. Thermochimica Acta, 439(1–2), 8–20. DOI 10.1016/j.tca.2005.08.036.17. Abdulagatov, I. M., Zeinalova, A. B., Azizov, N. D. (2004). Viscosity of the aqueous Ca (NO3)2 solutions at temperatures 298 to 573 K and at pressures up to 40 MPa. Journal of Chemical Engineering Data, 49(5), 1444–1450. DOI 10.1021/je049853n.18. Abdulagatov, I. M., Zeinalova, A. B., Azizov, N. D. (2006). Experimental viscosity B-coefficients of aqueous LiCl solutions. Journal of Molecular Liquids, 126(1–3), 75–88. DOI 10.1016/j.molliq.2005.10.006.19. Akmedova-Azizova, L. A. (2006). Thermal conductivity and viscosity of aqueous Mg(NO3)2, Ca(NO3)2 and Ba (NO3)2 solutions at high temperatures and high pressures. Journal of Chemical Engineering Data, 54, 510–517.20. Tian, Z., Bagherzadeh, S. A., Ghani, K., Karimipour, A., Abdollahi, A. et al. (2019). Nonlinear function estimation fuzzy system (NFEFS) as a novel statistical approach to estimate nanofluids’ thermal conductivity according to empirical data. International Journal of Numerical Methods for Heat & Fluid Flow, 30(6), 3267–3281. DOI 10.1108/HFF-12-2018-0768.21. Hoseini, M., Haghtalab, A., Navid Family, M. (2020). Elongational behavior of silica nanoparticle-filled lowdensity polyethylene/polylactic acid blends and their morphology. Rheologica Acta, 59(9), 621–630. DOI10.1007/s00397-020-01225-5.22. Abdulagatov, I. M., Zeinalova, A. B., Azizov, N. D. (2005). Viscosity of aqueous Na2SO4 solutions at temperatures from (298 to 573) K and at pressures up to 40 MPa. Fluid Phase Equilibria, 227(1), 57–70. DOI 10.1016/j.fluid.2004.10.028.23. Zeynalova, A. B., Iskenderov, A. I., Tairov, A. D., Akhundov, T. S. (1991). Dynamic viscosity of calcium nitrate. Oil and Gas Studies, 1, 53–54.24. Nikfarjam, A., Raji, H., Hashemi, M. M. (2019). Label-free impedance-based detection of encapsulated single cells in droplets in low cost and transparent microfluidic chip. Journal of Bioengineering Research, 1(4), 29–37.25. Ahmadizadeh, P., Mashadi, B., Lodaya, D. (2017). Energy management of a dual-mode power-split powertrain based on the Pontryagin’s minimum principle. IET Intelligent Transport Systems, 11(9), 561–571. DOI 10.1049/iet-its.2016.0281.26. Sokolov, B., Potryasaev, S., Serova, E., Ipatov, Y., Andrianov, Y. (2019). Informative and formal description of structure dynamics control task of cyber-physical systems. Journal of Applied Engineering Science, 17(1), 61– 64. DOI 10.5937/jaes16-18716.27. Bakhtiari, R., Kamkari, B., Afrand, M., Abdollahi, A. (2021). Preparation of stable TiO2-Graphene/Water hybrid nanofluids and development of a new correlation for thermal conductivity. Powder Technology, 385, 466–477. DOI 10.1016/j.powtec.2021.03.010.28. Deryagin, A. V., Krasnova, L. A., Sahabiev, I. A., Samedov, M. N., Shurygin, V. Y. (2019). Scientific and educational experiment in the engineering training of students in the bachelor’s degree program in energy production. International Journal of Innovative Technology and Exploring Engineering, 8(8), 572–577.29. Kuzmin, P. A., Bukharina, I. L., Kuzmina, A. M. (2016). 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DOI 10.1134/S0015462818060149.866851318Thermal conductivityDynamic viscosityWater-salt systemsAqueous solutions of saltsHigh pressureMulticomponent water-salt systemsPublicationORIGINALThermal Conductivity and Dynamic Viscosity of Highly Mineralized Water.pdfThermal Conductivity and Dynamic Viscosity of Highly Mineralized Water.pdfapplication/pdf416829https://repositorio.cuc.edu.co/bitstreams/1a7985b1-1499-428c-9cf0-66425dd355d8/download7af4d708cc8d5791575181f7ad5d7a47MD51LICENSElicense.txtlicense.txttext/plain; charset=utf-83196https://repositorio.cuc.edu.co/bitstreams/0490ed66-c083-45bb-948c-2a6d5b4d269b/downloade30e9215131d99561d40d6b0abbe9badMD52TEXTThermal Conductivity and Dynamic Viscosity of Highly Mineralized Water.pdf.txtThermal Conductivity and Dynamic Viscosity of Highly Mineralized Water.pdf.txtExtracted texttext/plain40433https://repositorio.cuc.edu.co/bitstreams/679630ce-e129-45b9-b771-c8a27626905e/downloadc8fb6e3ad5be0a0510982679bc5000feMD53THUMBNAILThermal Conductivity 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