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S.N. Kravchun (1986)
Thermal Conductivity of Binary Liquid SystemsZHURNAL FIZICHESKOI KHIMII, 60
B. Ruan, Kai Yang, Xiaowei Gao, M. Cui (2020)
Estimation of thermophysical properties of a hydrocarbon fuel at supercritical pressureApplied Thermal Engineering, 171
S. Rutin, A. Igolnikov, P. Skripov (2020)
Title High-Power Heat Release in Supercritical Water: Insight into the Heat Transfer Deterioration ProblemJournal of Engineering Thermophysics, 29
T. Sun, A. Teja (2003)
Density, Viscosity, and Thermal Conductivity of Aqueous Ethylene, Diethylene, and Triethylene Glycol Mixtures between 290 K and 450 KJournal of Chemical & Engineering Data, 48
T.Z-M. Mohammed, S. Alireza (1998)
Measurement and Correlation of Viscosities, Densities, and Water Activities for the System Poly(propylene Glycol) + MgSO4 + H2O at 25◦CJournal of Chemical & Engineering Data, 27
A. Bergles, R. Manglik (2013)
CURRENT PROGRESS AND NEW DEVELOPMENTS IN ENHANCED HEAT AND MASS TRANSFERJournal of Enhanced Heat Transfer, 20
V. Nakoryakov (2015)
Energy of Russia—a key factor in its industry and financial recoveryJournal of Engineering Thermophysics, 24
U. Hammerschmidt, W. Sabuga (2000)
Transient Hot Strip (THS) Method: Uncertainty AssessmentInternational Journal of Thermophysics, 21
A. Igolnikov, S. Rutin, P. Skripov (2021)
Investigation of Binary Liquids in Unstable States—An Experimental ApproachLiquids, 1
A. Starostin, K. Luk’yanov, A. Smotritskiy, P. Skripov (2019)
Investigation of not fully stable fluids by the method of controlled pulse heating. 4. Evaluation of PMMA thermophysical properties up to 673 KThermochimica Acta, 682
R. Winterton (2001)
Early Study of Heat Transfer: Newton and Fourier
A. Igolnikov, S. Rutin, P. Skripov (2021)
Short-term measurements in thermally-induced unstable states of mixtures with LCSTThermochimica Acta, 695
M. Zafarani-Moattar, A. Salabat (1998)
Measurement and Correlation of Viscosities, Densities, and Water Activities for the System Poly(propylene glycol) + MgSO4 + H2O at 25°CJournal of Solution Chemistry, 27
Wei Xing, A. Ullmann, N. Brauner, J. Plawsky, Y. Peles (2018)
Advancing micro-scale cooling by utilizing liquid-liquid phase separationScientific Reports, 8
U. Grigull, H. Sandner (1984)
10.1007/978-3-642-96816-7Heat Conduction
S.B. Rutin, D.V. Volosnikov, P.V. Skripov (2017)
Heat Transfer under High-Power Heating of Liquids: 3. Threshold Decrease of Heat Conduction in Supercritical RegionInterfacial Phenomena and Heat Transfer, 91
A. Pavlenko, D. Kuznetsov (2021)
Development of Methods for Heat Transfer Enhancement During Nitrogen Boiling to Ensure Stabilization of HTS DevicesJournal of Engineering Thermophysics, 30
A. King (1991)
The solubility of gases in aqueous solutions of poly(propylene glycol)Journal of Colloid and Interface Science, 243
Marco Marcos, D. Cabaleiro, M. Guimarey, M. Comuñas, L. Fedele, Josefa Fernández, L. Lugo (2017)
PEG 400-Based Phase Change Materials Nano-Enhanced with Functionalized Graphene NanoplateletsNanomaterials, 8
O. Volodin, N. Pecherkin, A. Pavlenko (2021)
Heat Transfer Enhancement at Boiling and Evaporation of Liquids on Modified Surfaces—A ReviewHigh Temperature, 59
A. Shamirzaev, A. Mordovskoi, V. Kuznetsov (2021)
Heat Transfer during Flow Boiling of Water in Short Microchannel with High Aspect RatioJournal of Engineering Thermophysics, 30
M. Lexin, V. Yagov, A. Zabirov, P. Kanin, M. Vinogradov, I. Molotova (2020)
Investigation of Intensive Cooling of High-Temperature Bodies in Binary Water–Isopropanol MixtureHigh Temperature, 58
S. Trivedi, Chhavi Bhanot, S. Pandey (2010)
Densities of {poly(ethylene glycol) + water} over the temperature range (283.15 to 363.15) KThe Journal of Chemical Thermodynamics, 42
P. Skripov, A. Igolnikov, S. Rutin, A. Melkikh (2022)
Heat transfer by unstable solution having the lower critical solution temperatureInternational Journal of Heat and Mass Transfer
J. Sengers (2020)
Encountering Surprises in ThermophysicsInternational Journal of Thermophysics, 41
V. Kurganov, Y. Zeigarnik, I. Maslakova (2021)
Normal and Deteriorated Heat Transfer Under Heating Turbulent Supercritical Pressure Coolants Flows in Round Tubes
T. Ruggeri, M. Sugiyama (2018)
Heat ConductionClassical and Relativistic Rational Extended Thermodynamics of Gases
L. Phylippov, S. Nefedov, S. Kravchoon (1980)
The investigation of thermophysical properties of fluids by an alternating current hot-wire methodInternational Journal of Thermophysics, 1
Z. Losenický (1970)
THERMAL CONDUCTIVITY OF LIQUID SOLUTIONS
V. Zhukov, E. Slesareva, A. Pavlenko (2021)
Effect of Modification of Heat-Release Surface on Heat Transfer in Nucleate Boiling at Free Convection of FreonJournal of Engineering Thermophysics, 30
(2006)
Faizullin, M.Z., in Crystal–Liquid–Gas Phase Transition and Thermodynamic Similarity, Weinheim: Wiley–VCH
S. Rutin, D. Galkin, P. Skripov (2017)
Investigation of not fully stable fluids by the method of controlled pulse heating. 3. Attainable superheat of solutions with different types of critical curveThermochimica Acta, 651
P. Skripov, A. Starostin, D. Volosnikov (2003)
Heat transfer in pulse-superheated liquidsDoklady Physics, 48
T.F. Sun, Amyn S. Teja (2004)
Density, Viscosity and Thermal Conductivity of Aqueous Solutions of Propylene Glycol, Dipropylene Glycol, and Tripropylene Glycol between 290 K and 460 KJournal of Chemical & Engineering Data, 49
I. Abdulagatov, Z. Abdulagatova, B. Grigor’ev, S. Kallaev, Z. Omarov, A. Bakmaev, A. Ramazanova, K. Rabadanov (2021)
Thermal Diffusivity, Heat Capacity, and Thermal Conductivity of Oil Reservoir Rock at High TemperaturesInternational Journal of Thermophysics, 42
S. Rutin, D. Volosnikov, P. Skripov (2015)
Heat transfer under high-power heating of liquids. 3. Threshold decrease of heat conduction in supercritical regionInternational Journal of Heat and Mass Transfer, 91
The article elucidates the characteristic features of heat transfer from a fast-response heater probe to a pulse-heated liquid solution in the heat conduction mode. The heating time was 10 ms; the heat flux density increase was up to 10 MW/m2 by order of magnitude. The experiments confirmed the conclusion by L.P. Filippov on the appearance of additional (with respect to the additive values) thermal resistance of liquid with the addition of a second component to it. The verification of the conclusion based on a new material relying on the substantial expansion of the range of variation of the excess volume and temperature, including in not fully stable states, briefly superheated relative to the temperature of liquid-vapor and/or liquid-liquid equilibrium. The results indirectly indicate the excess volume at the initial temperature of the solution as a key factor determining the value of its additional thermal resistance in the superheated state.
Journal of Engineering Thermophysics – Springer Journals
Published: Mar 1, 2022
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