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• W2019004909 abstract "• Existing HTC correlations can deviate significantly from experimental values. • It appears that correlations developed for SCW cannot be directly applied to SCCO 2 . • Experimental data for SC CO 2 were used to develop 3 new heat-transfer correlations. • Uncertainties associated with correlations are about ±20–30% for HTC values. • Uncertainties associated with correlations are about ±15–20% for T W . This paper presents an analysis of three new heat-transfer correlations developed for SuperCritical (SC) carbon dioxide (CO 2 ) flowing in vertical bare tubes. These correlations were developed from the large set of experimental data obtained at Chalk River Laboratories (CRL), AECL (2003). The dataset consists of tests performed in upward flow of CO 2 inside 8-mm ID vertical Inconel-600 tube with a 2.208-m heated length. Data points compiled lie within a wide range of thermodynamic parameters – outlet pressures ranging from 7.4 to 8.8 MPa, mass fluxes from 900 to 3000 kg/m 2 s, inlet fluid temperatures from 20 to 40 °C, and heat fluxes from 15 to 615 kW/m 2 ; and for several combinations of wall and bulk-fluid temperatures that were below, at, or above the pseudocritical temperature. The objective of our research is to obtain reference dataset on heat transfer in SCCO 2 and improve fundamental knowledge of the heat-transfer processes and handling of supercritical fluids. In general, heat-transfer process to a supercritical fluid is difficult to model, especially, when a fluid passes through the pseudocritical region, as there are very rapid variations in thermophysical properties of the fluid. Thus, it is important to investigate SC-fluid behaviour within these conditions. In general, SCCO 2 was and is used as a modelling fluid instead of SC water due to its lower critical parameters. Also, SCCO 2 is proposed to be used as a working fluid in the Brayton gas-turbine cycle as a secondary power cycle for some of the Generation-IV nuclear-reactor concepts such as Sodium-cooled Fast Reactor (SFR), Lead-cooled Fast Reactor (LFR) and Molten-Salt-cooled Reactor (MSR). In addition, SCCO 2 was proposed to be used in advanced air-conditioning and geothermal systems. Previous studies have shown that existing correlations deviate significantly from experimental Heat Transfer Coefficient (HTC) values, especially, within the pseudocritical range (for both SCCO 2 and SC water data–see Section 4 for more details). Moreover, the majority of correlations were mainly developed for supercritical water, and our latest results indicate that they cannot be directly applied to SCCO 2 with the same accuracy. There is still a great reliance on 1-D correlations for basic heat transfer calculations. We need to develop better empirical models that can predict SCF thermodynamic/heat-transfer behavior more accurately. Therefore, new empirical correlations to predict HTC values were developed based on CRL – SCCO 2 dataset. These correlations calculate HTC values with an accuracy of ±30% (wall temperatures with accuracy of ±20%) for the analyzed dataset." @default.
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• W2019004909 date "2013-08-01" @default.
• W2019004909 modified "2023-10-04" @default.
• W2019004909 title "Developing empirical heat-transfer correlations for supercritical CO2 flowing in vertical bare tubes" @default.
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• W2019004909 doi "https://doi.org/10.1016/j.nucengdes.2013.02.048" @default.
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