Mass Attenuation Coefficient of Some Bismuth-Based Alloys for Gamma-Ray Shielding: Theoretical and Experimental Approach
Deepak Malik, Renu Sharma, Tejbir Singh (2025). Mass Attenuation Coefficient of Some Bismuth-Based Alloys for Gamma-Ray Shielding: Theoretical and Experimental Approach. oai:ojs2.pubs.rsyn.org:article/124
Deepak Malik, Renu Sharma, Tejbir Singh. "Mass Attenuation Coefficient of Some Bismuth-Based Alloys for Gamma-Ray Shielding: Theoretical and Experimental Approach.".
Deepak Malik, Renu Sharma, Tejbir Singh. "Mass Attenuation Coefficient of Some Bismuth-Based Alloys for Gamma-Ray Shielding: Theoretical and Experimental Approach.".
@article{deepak2025mass,
title = {Mass Attenuation Coefficient of Some Bismuth-Based Alloys for Gamma-Ray Shielding: Theoretical and Experimental Approach},
author = {Deepak Malik and Renu Sharma and Tejbir Singh},
year = 2025,
journal = {},
url = oai:ojs2.pubs.rsyn.org:article/124,
language = en
}
TY - JOUR TI - Mass Attenuation Coefficient of Some Bismuth-Based Alloys for Gamma-Ray Shielding: Theoretical and Experimental Approach AU - Deepak Malik AU - Renu Sharma AU - Tejbir Singh PY - 2025 DA - 2025-04-03 UR - oai:ojs2.pubs.rsyn.org:article/124 AB - Bismuth-based alloys have gained significant attention for their potential use in gamma-ray shielding applications due to their high atomic number and non-toxic nature compared to conventional lead-based materials. In this study, the mass attenuation coefficient (MAC) of bismuth-based alloys was determined using both theoretical and experimental approaches. Theoretical values were obtained using the WinXCom software, which provides photon interaction cross-sections for various energies. Experimentally, the mass attenuation coefficient was measured using the narrow beam geometry method with gamma-ray sources of varying energies. The results from both methods were analyzed and compared to assess the accuracy of WinXCom in predicting attenuation properties. Further, the role of preliminary computations of optimum thickness range for alloy samples play a vital role in obtaining accurate results. The findings indicate that bismuth-based alloys exhibit promising attenuation characteristics, making them viable candidates for radiation shielding applications in medical, industrial, and nuclear environments. LA - en ER -
π€ AI Key Takeaways & Research Insights
Automated AI Analysisπ‘ Core Finding
Bismuth-based alloys have gained significant attention for their potential use in gamma-ray shielding applications due to their high atomic number and non-toxic nature compared to conventional lead-based materials.
π¬ Methodology
In this study, the mass attenuation coefficient (MAC) of bismuth-based alloys was determined using both theoretical and experimental approaches.
π― Domain Impact
The findings indicate that bismuth-based alloys exhibit promising attenuation characteristics, making them viable candidates for radiation shielding applications in medical, industrial, and nuclear en...
Abstract
Bismuth-based alloys have gained significant attention for their potential use in gamma-ray shielding applications due to their high atomic number and non-toxic nature compared to conventional lead-based materials. In this study, the mass attenuation coefficient (MAC) of bismuth-based alloys was determined using both theoretical and experimental approaches. Theoretical values were obtained using the WinXCom software, which provides photon interaction cross-sections for various energies. Experimentally, the mass attenuation coefficient was measured using the narrow beam geometry method with gamma-ray sources of varying energies. The results from both methods were analyzed and compared to assess the accuracy of WinXCom in predicting attenuation properties. Further, the role of preliminary computations of optimum thickness range for alloy samples play a vital role in obtaining accurate results. The findings indicate that bismuth-based alloys exhibit promising attenuation characteristics, making them viable candidates for radiation shielding applications in medical, industrial, and nuclear environments.
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