Engineering topics
Publications and source records attributed to Hanley, H. J. M..
The thermal conductivity of a fluid exhibits a pronounced anomalous increase in a large range of densities and temperatures around the gas-liquid critical point. In this paper we discuss an attempt to estimate the thermal conductivity in the critical region of fluids from a knowledge of the equilibrium properties and the regular behavior of the transport properties outside the critical region.
Equations and tables are presented for the viscosity and thermal conductivity coefficients of gaseous and liquid oxygen at temperatures between 80 K and 400 K for pressures up to 200 atm. and at temperatures between 80 K and 2000 K for the dilute gas. A description of the anomalous behavior of the thermal conductivity in the critical region is included. The tabulated coefficients are reliable to within about 15% except for a region in the immediate vicinity of the critical point. Some possibilities for future improvements of this reliability are discussed.
Viscosity and thermal conductivity of dilute gaseous para and normal hydrogen at various temperatures
Gas transport coefficients dependence on density and temperature, noting experimental results for Ne and molecular N and H
Intermolecular potential function relation to individual macroscopic properties extended to simultaneous fit of all possible pair combinations
Dilute gas transport property tables, analyzing applicability to real gases and pressure range
Dilute gas viscosity coefficient data evaluated for simple gases above room temperature, discussing correctness and experimental discrepancies
Statistical correlation between model intermolecular potential functions, and experimental properties
Viscosity and thermoconductivity coefficients of dilute neon, krypton, and xenon
Thermophysical properties of argon, oxygen, and nitrogen at cryogenic temperatures