Measurement of Viscosity of a Binary Mixture of R1123 + R32 Refrigerant by Tandem Capillary Tube Method

A refrigerant mixture of R1123 + R32 is expected to be an alternative working fluid for refrigeration systems, organic Rankine cycle and heat pumps due to its lower global warming potential and transport properties. The goals of this work are to measure the viscosity of the liquid and vapor phases o...

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Veröffentlicht in:International journal of thermophysics 2020, Vol.41 (6), Article 83
Hauptverfasser: Mondal, Dipayan, Hori, Yoshiya, Kariya, Keishi, Miyara, Akio, Jahangir Alam, Md
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Hori, Yoshiya
Kariya, Keishi
Miyara, Akio
Jahangir Alam, Md
description A refrigerant mixture of R1123 + R32 is expected to be an alternative working fluid for refrigeration systems, organic Rankine cycle and heat pumps due to its lower global warming potential and transport properties. The goals of this work are to measure the viscosity of the liquid and vapor phases of this mixture refrigerant. Consequently, the viscosity of mixture refrigerant was measured by the tandem capillary tube method up to 4.5 MPa over a temperature range from 250.64 K to 312.61 K for the liquid phase and from 323.35 K to 382.88 K in the vapor phase, respectively. Mass fractions of measured R1123/R32 refrigerant mixture were 0.428/0.572 in the liquid phase and 0.425/0.575 in the vapor phase. The obtained experimental data were compared with estimated values of the ECS model, and the average absolute deviation (AAD) was found at 3.63 % in the liquid phase and 2.45 % of the vapor phase. Also, the measured liquid and vapor viscosity data were correlated with the Grunberg–Nissan method and Wilke mixture correlation, respectively, while the AAD was 1.33 % for liquid and 3.69 % for vapor phases. The total combined standard uncertainties in the liquid and vapor viscosity measurements were estimated to be less than 2.9 % and 3.0 %, respectively.
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subjects Atpc 2019
ATPC 2019: Selected Papers of the 12th Asian Thermophysical Properties Conference
Binary mixtures
Capillary tubes
Classical Mechanics
Condensed Matter Physics
Geophysics
Heat pumps
Industrial Chemistry/Chemical Engineering
Liquid phases
Physical Chemistry
Physics
Physics and Astronomy
Rankine cycle
Refrigerants
Refrigeration
Thermodynamics
Transport properties
Vapor phases
Viscosity
Viscosity measurement
Working fluids
title Measurement of Viscosity of a Binary Mixture of R1123 + R32 Refrigerant by Tandem Capillary Tube Method
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