Enthalpy of formation of U^sub 3^Si^sub 2^: A high-temperature drop calorimetry study

U3Si2 is presently receiving consideration as a high density light water reactor fuel. A reliable knowledge of the formation enthalpy of U3Si2 not only helps study the thermal stability but also facilitate the modeling efforts by serving as a benchmark parameter for thermodynamic calculations of pha...

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Veröffentlicht in:Journal of nuclear materials 2018-08, Vol.507, p.44
Hauptverfasser: Guo, Xiaofeng, White, Joshua T, Nelson, Andrew T, Migdisov, Artaches, Roback, Robert, Xu, Hongwu
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container_start_page 44
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creator Guo, Xiaofeng
White, Joshua T
Nelson, Andrew T
Migdisov, Artaches
Roback, Robert
Xu, Hongwu
description U3Si2 is presently receiving consideration as a high density light water reactor fuel. A reliable knowledge of the formation enthalpy of U3Si2 not only helps study the thermal stability but also facilitate the modeling efforts by serving as a benchmark parameter for thermodynamic calculations of phase equilibria at high temperatures. Previous high temperature thermal analysis on U3Si2 laid the basis for us to conduct two types of high-temperature drop calorimetric measurements to determine its enthalpy of formation: oxide-melt drop-solution calorimetry and transposed temperature drop calorimetry, from which the results obtained are consistent. The determined standard enthalpy of formation of U3Si2 per mole atom, −33.2 ± 3.1 kJ/mol⋅at.%, is in good agreement with previously reported values obtained by other techniques. Our drop calorimetry methods will be used for thermodynamic studies of other U-Si compounds whose enthalpies of formation are not available.
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subjects Calorimetry
Enthalpy
Heat measurement
High temperature
Light water reactors
Nuclear fuels
Phase equilibria
Radioactive materials
Receiving waters
Silicon compounds
Temperature effects
Thermal analysis
Thermal stability
Thermodynamic equilibrium
Thermodynamics
Uranium
Uranium silicide
title Enthalpy of formation of U^sub 3^Si^sub 2^: A high-temperature drop calorimetry study
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