High-Temperature Mechanical and Dynamical Properties of γ -(U,Zr) Alloys

High-temperature body-centered cubic (BCC) γ-U is effectively stablized by γ-(U,Zr) alloys that also make it feasible to use it as a nuclear fuel. However, relatively little research has focused on γ-(U,Zr) alloys due to their instability at room temperature. The effect of Zr composition on its mech...

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Published inMaterials Vol. 16; no. 7; p. 2623
Main Authors Ma, Jiang-Jiang, Han, Xue-Fen, Cai, Xiao-Xiao, Qiu, Ruizhi, Eriksson, Olle, Zhang, Ping, Wang, Bao-Tian
Format Journal Article
LanguageEnglish
Published Switzerland MDPI AG 26.03.2023
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Abstract High-temperature body-centered cubic (BCC) γ-U is effectively stablized by γ-(U,Zr) alloys that also make it feasible to use it as a nuclear fuel. However, relatively little research has focused on γ-(U,Zr) alloys due to their instability at room temperature. The effect of Zr composition on its mechanical properties is not clear yet. Herein, we perform molecular dynamics simulations to investigate the mechanical and dynamical stabilities of γ-(U,Zr) alloys under high temperatures, and we calculate the corresponding lattice constants, various elastic moduli, Vickers hardness, Debye temperature, and dynamical structure factor. The results showed that γ-U, β-Zr, and γ-(U,Zr) are all mechanically and dynamically stable at 1200 K, which is in good agreement with the previously reported high-temperature phase diagram of U-Zr alloys. We found that the alloying treatment on γ-U with Zr can effectively improve its mechanical strength and melting points, such as Vickers hardness and Debye temperature, making it more suitable for nuclear reactors. Furthermore, the Zr concentrations in γ-(U,Zr) alloys have an excellent effect on these properties. In addition, the dynamical structure factor reveals that γ-U shows different structural features after alloying with Zr. The present simulation data and insights could be significant for understanding the structures and properties of UZr alloy under high temperatures.
AbstractList High-temperature body-centered cubic (BCC) γ-U is effectively stablized by γ-(U,Zr) alloys that also make it feasible to use it as a nuclear fuel. However, relatively little research has focused on γ-(U,Zr) alloys due to their instability at room temperature. The effect of Zr composition on its mechanical properties is not clear yet. Herein, we perform molecular dynamics simulations to investigate the mechanical and dynamical stabilities of γ-(U,Zr) alloys under high temperatures, and we calculate the corresponding lattice constants, various elastic moduli, Vickers hardness, Debye temperature, and dynamical structure factor. The results showed that γ-U, β-Zr, and γ-(U,Zr) are all mechanically and dynamically stable at 1200 K, which is in good agreement with the previously reported high-temperature phase diagram of U-Zr alloys. We found that the alloying treatment on γ-U with Zr can effectively improve its mechanical strength and melting points, such as Vickers hardness and Debye temperature, making it more suitable for nuclear reactors. Furthermore, the Zr concentrations in γ-(U,Zr) alloys have an excellent effect on these properties. In addition, the dynamical structure factor reveals that γ-U shows different structural features after alloying with Zr. The present simulation data and insights could be significant for understanding the structures and properties of UZr alloy under high temperatures.
High-temperature body-centered cubic (BCC) gamma-U is effectively stablized by gamma-(U,Zr) alloys that also make it feasible to use it as a nuclear fuel. However, relatively little research has focused on gamma-(U,Zr) alloys due to their instability at room temperature. The effect of Zr composition on its mechanical properties is not clear yet. Herein, we perform molecular dynamics simulations to investigate the mechanical and dynamical stabilities of gamma-(U,Zr) alloys under high temperatures, and we calculate the corresponding lattice constants, various elastic moduli, Vickers hardness, Debye temperature, and dynamical structure factor. The results showed that gamma-U, beta-Zr, and gamma-(U,Zr) are all mechanically and dynamically stable at 1200 K, which is in good agreement with the previously reported high-temperature phase diagram of U-Zr alloys. We found that the alloying treatment on ?-U with Zr can effectively improve its mechanical strength and melting points, such as Vickers hardness and Debye temperature, making it more suitable for nuclear reactors. Furthermore, the Zr concentrations in gamma-(U,Zr) alloys have an excellent effect on these properties. In addition, the dynamical structure factor reveals that gamma-U shows different structural features after alloying with Zr. The present simulation data and insights could be significant for understanding the structures and properties of UZr alloy under high temperatures.
High-temperature body-centered cubic (BCC) γ -U is effectively stablized by γ -(U,Zr) alloys that also make it feasible to use it as a nuclear fuel. However, relatively little research has focused on γ -(U,Zr) alloys due to their instability at room temperature. The effect of Zr composition on its mechanical properties is not clear yet. Herein, we perform molecular dynamics simulations to investigate the mechanical and dynamical stabilities of γ -(U,Zr) alloys under high temperatures, and we calculate the corresponding lattice constants, various elastic moduli, Vickers hardness, Debye temperature, and dynamical structure factor. The results showed that γ -U, β -Zr, and γ -(U,Zr) are all mechanically and dynamically stable at 1200 K, which is in good agreement with the previously reported high-temperature phase diagram of U-Zr alloys. We found that the alloying treatment on γ -U with Zr can effectively improve its mechanical strength and melting points, such as Vickers hardness and Debye temperature, making it more suitable for nuclear reactors. Furthermore, the Zr concentrations in γ -(U,Zr) alloys have an excellent effect on these properties. In addition, the dynamical structure factor reveals that γ -U shows different structural features after alloying with Zr. The present simulation data and insights could be significant for understanding the structures and properties of UZr alloy under high temperatures.
Author Han, Xue-Fen
Eriksson, Olle
Wang, Bao-Tian
Cai, Xiao-Xiao
Qiu, Ruizhi
Ma, Jiang-Jiang
Zhang, Ping
AuthorAffiliation 5 Science and Technology on Surface Physics and Chemistry Laboratory, Mianyang 621908, China
6 Department of Physics and Astronomy, Materials Theory, Uppsala University, Box 516, SE-75120 Uppsala, Sweden
4 University of Chinese Academy of Sciences (UCAS), Beijing 100049, China
8 Institute of Applied Physics and Computational Mathematics, Beijing 100088, China
2 Spallation Neutron Source Science Center (SNSSC), Dongguan 523803, China
3 School of Physics and Information Engineering, Shanxi Normal University, Taiyuan 030031, China
1 Institute of High Energy Physics, Chinese Academy of Sciences (CAS), Beijing 100049, China
7 School of Physics and Physical Engineering, Qufu Normal University, Qufu 273165, China
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Keywords thermodynamic stability
γ-(U,Zr)
dynamical structural factor
mechanical properties
Language English
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Snippet High-temperature body-centered cubic (BCC) γ-U is effectively stablized by γ-(U,Zr) alloys that also make it feasible to use it as a nuclear fuel. However,...
High-temperature body-centered cubic (BCC) γ -U is effectively stablized by γ -(U,Zr) alloys that also make it feasible to use it as a nuclear fuel. However,...
High-temperature body-centered cubic (BCC) gamma-U is effectively stablized by gamma-(U,Zr) alloys that also make it feasible to use it as a nuclear fuel....
High-temperature body-centered cubic (BCC) γ -U is effectively stablized by γ -(U,Zr) alloys that also make it feasible to use it as a nuclear fuel. However,...
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StartPage 2623
SubjectTerms Alloying
Alloys
Atoms & subatomic particles
Crystal structure
Debye temperature
Diamond pyramid hardness
dynamical structural factor
Elastic properties
gamma-(U
Heat conductivity
Heat resistant alloys
High temperature
Lattice parameters
Mechanical properties
Melting points
Modulus of elasticity
Molecular dynamics
Nuclear fuels
Nuclear reactors
Phase diagrams
Phase transitions
Physical properties
Room temperature
Simulation
Structure factor
Symmetry
Temperature
thermodynamic stability
Uranium base alloys
Zirconium
Zr
γ-(U,Zr)
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Title High-Temperature Mechanical and Dynamical Properties of γ -(U,Zr) Alloys
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https://urn.kb.se/resolve?urn=urn:nbn:se:uu:diva-501986
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