Micro‐hardness and gamma‐ray attenuation properties of lead iron phosphate glasses
For safe immobilization of nuclear waste, lead-iron phosphate glasses are promising as high-level commercial and defense materials. In this research article, the compositional, elastic, and gamma shielding properties of the glasses containing (80 − x)P 2 O 5 – xFe 2 O 3 –20PbO with x = 20, 25, 30, 3...
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Published in | Journal of materials science. Materials in electronics Vol. 32; no. 10; pp. 13906 - 13916 |
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Main Authors | , , , , |
Format | Journal Article |
Language | English |
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New York
Springer US
01.05.2021
Springer Nature B.V |
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Abstract | For safe immobilization of nuclear waste, lead-iron phosphate glasses are promising as high-level commercial and defense materials. In this research article, the compositional, elastic, and gamma shielding properties of the glasses containing (80 − x)P
2
O
5
– xFe
2
O
3
–20PbO with x = 20, 25, 30, 35 mol% were reported. The compositional and elastic parameters including the micro-hardness of the investigated glass samples were obtained based on Makishima-Mackenzie’s theory (MM-theory) and R model. We found that the deviation between these two methods decreased as Fe
2
O
3
concentrations increased from 20 to 35 mol %. Additionally, γ-ray attenuation properties of the P
2
O
5
– Fe
2
O
3
–PbO glass system were evaluated using Geant4 simulation toolkit. The simulation results were compared with the theoretical ones extracted from Py-MLBUF software. The obtained results reveal that the MACs of the glasses vary from 0.030 to 40.014 cm
2
/g for PFP-A, from 0.031 to 41.502 cm
2
/g for PFP-B, 0.031 to 43 cm
2
/g for PFP-C and from 0.031 to 44.400 cm
2
/g for PFP-D. Maximum Z
eff
values of present glasses are obtained at 0.10 MeV whereas minimum Z
eff
values are obtained at 1.5 MeV. Finally, the fundamental γ-ray attenuation properties of the P
2
O
5
– Fe
2
O
3
–PbO glass system are found to be comparable with those of traditional and commercial radiation shields such as RS-253-G18 and RS-360 commercial glasses, ordinary concrete, barite concrete and TBZP10 from scientific literature. The results indicated that MFPs of the investigated glasses are lower than those of RS-360 glass, but they are higher than those of barite concrete and TBZP10. |
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AbstractList | For safe immobilization of nuclear waste, lead-iron phosphate glasses are promising as high-level commercial and defense materials. In this research article, the compositional, elastic, and gamma shielding properties of the glasses containing (80 − x)P2O5– xFe2O3–20PbO with x = 20, 25, 30, 35 mol% were reported. The compositional and elastic parameters including the micro-hardness of the investigated glass samples were obtained based on Makishima-Mackenzie’s theory (MM-theory) and R model. We found that the deviation between these two methods decreased as Fe2O3 concentrations increased from 20 to 35 mol %. Additionally, γ-ray attenuation properties of the P2O5– Fe2O3–PbO glass system were evaluated using Geant4 simulation toolkit. The simulation results were compared with the theoretical ones extracted from Py-MLBUF software. The obtained results reveal that the MACs of the glasses vary from 0.030 to 40.014 cm2/g for PFP-A, from 0.031 to 41.502 cm2/g for PFP-B, 0.031 to 43 cm2/g for PFP-C and from 0.031 to 44.400 cm2/g for PFP-D. Maximum Zeff values of present glasses are obtained at 0.10 MeV whereas minimum Zeff values are obtained at 1.5 MeV. Finally, the fundamental γ-ray attenuation properties of the P2O5– Fe2O3–PbO glass system are found to be comparable with those of traditional and commercial radiation shields such as RS-253-G18 and RS-360 commercial glasses, ordinary concrete, barite concrete and TBZP10 from scientific literature. The results indicated that MFPs of the investigated glasses are lower than those of RS-360 glass, but they are higher than those of barite concrete and TBZP10. For safe immobilization of nuclear waste, lead-iron phosphate glasses are promising as high-level commercial and defense materials. In this research article, the compositional, elastic, and gamma shielding properties of the glasses containing (80 − x)P 2 O 5 – xFe 2 O 3 –20PbO with x = 20, 25, 30, 35 mol% were reported. The compositional and elastic parameters including the micro-hardness of the investigated glass samples were obtained based on Makishima-Mackenzie’s theory (MM-theory) and R model. We found that the deviation between these two methods decreased as Fe 2 O 3 concentrations increased from 20 to 35 mol %. Additionally, γ-ray attenuation properties of the P 2 O 5 – Fe 2 O 3 –PbO glass system were evaluated using Geant4 simulation toolkit. The simulation results were compared with the theoretical ones extracted from Py-MLBUF software. The obtained results reveal that the MACs of the glasses vary from 0.030 to 40.014 cm 2 /g for PFP-A, from 0.031 to 41.502 cm 2 /g for PFP-B, 0.031 to 43 cm 2 /g for PFP-C and from 0.031 to 44.400 cm 2 /g for PFP-D. Maximum Z eff values of present glasses are obtained at 0.10 MeV whereas minimum Z eff values are obtained at 1.5 MeV. Finally, the fundamental γ-ray attenuation properties of the P 2 O 5 – Fe 2 O 3 –PbO glass system are found to be comparable with those of traditional and commercial radiation shields such as RS-253-G18 and RS-360 commercial glasses, ordinary concrete, barite concrete and TBZP10 from scientific literature. The results indicated that MFPs of the investigated glasses are lower than those of RS-360 glass, but they are higher than those of barite concrete and TBZP10. |
Author | Al-Buriahi, M. S. Sfina, Noureddine Alomairy, Sultan Eke, Canel Mutuwong, Chalermpon |
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Snippet | For safe immobilization of nuclear waste, lead-iron phosphate glasses are promising as high-level commercial and defense materials. In this research article,... |
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SubjectTerms | Attenuation Barite Characterization and Evaluation of Materials Chemistry and Materials Science Concrete Elastic properties Glass Investigations Iron Materials Science Microhardness Optical and Electronic Materials Phosphorus pentoxide Physics Radiation Radiation shielding Radioactive wastes Science education Simulation |
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Title | Micro‐hardness and gamma‐ray attenuation properties of lead iron phosphate glasses |
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