Green Conversion of the Hazardous Cathode Ray Tube and Red Mud into Radiation Shielding Concrete

The present investigation was aimed at the utilization of alternate materials, emphasizing hazardous industrial products (red mud and cathode ray tubes), as constituents of radiation shielding concrete. The usage of these hazardous industrial products improves the sustainability and performance of t...

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Main Authors: M. I. Sayyed, Nouf Almousa, Mohamed Elsafi
Format: Article
Language:English
Published: MDPI AG 2022-08-01
Series:Materials
Subjects:
Online Access:https://www.mdpi.com/1996-1944/15/15/5316
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author M. I. Sayyed
Nouf Almousa
Mohamed Elsafi
author_facet M. I. Sayyed
Nouf Almousa
Mohamed Elsafi
author_sort M. I. Sayyed
collection DOAJ
description The present investigation was aimed at the utilization of alternate materials, emphasizing hazardous industrial products (red mud and cathode ray tubes), as constituents of radiation shielding concrete. The usage of these hazardous industrial products improves the sustainability and performance of the radiation shielding concrete. Five concrete blocks were cast and their density, compressive strength, gamma shielding factors, radiation absorption ratio, and transmission factor were explored. For this purpose, gamma-ray shielding measurements were done with the help of an HPGe detector. Mix-1, with zero contents of red mud and CRTs, had the lowest LAC. The LAC results demonstrated that the shielding performance of the current concretes would be better with the increase in red mud and cathode ray tube glass. The Transmission factor (TF) for the prepared concretes with a thickness of 2 cm varied between 11.9–26.1% at 0.06 MeV, while it varied between 4–13% for a thickness of 3 cm. The TF results showed that the composites with a thickness of 2, 3, or 5 cm are good shields against lower energy radiation. The radiation absorption ratio (RAR) for the prepared concretes is high at low energy, suggesting that these new composites can absorb most of the low-energy photons. The RAR results emphasize that the increase in CRTs in the new composites enhanced the radiation shielding features, and when the CRT glass is at a maximum, more attenuation was achieved.
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spelling doaj.art-95c211f91d09466e9dd31ca3544d7e832023-11-30T22:36:09ZengMDPI AGMaterials1996-19442022-08-011515531610.3390/ma15155316Green Conversion of the Hazardous Cathode Ray Tube and Red Mud into Radiation Shielding ConcreteM. I. Sayyed0Nouf Almousa1Mohamed Elsafi2Department of Physics, Faculty of Science, Isra University, Amman 11622, JordanDepartment of Physics, College of Science, Princess Nourah bint Abdulrahman University, P.O. Box 84428, Riyadh 11671, Saudi ArabiaPhysics Department, Faculty of Science, Alexandria University, Alexandria 21511, EgyptThe present investigation was aimed at the utilization of alternate materials, emphasizing hazardous industrial products (red mud and cathode ray tubes), as constituents of radiation shielding concrete. The usage of these hazardous industrial products improves the sustainability and performance of the radiation shielding concrete. Five concrete blocks were cast and their density, compressive strength, gamma shielding factors, radiation absorption ratio, and transmission factor were explored. For this purpose, gamma-ray shielding measurements were done with the help of an HPGe detector. Mix-1, with zero contents of red mud and CRTs, had the lowest LAC. The LAC results demonstrated that the shielding performance of the current concretes would be better with the increase in red mud and cathode ray tube glass. The Transmission factor (TF) for the prepared concretes with a thickness of 2 cm varied between 11.9–26.1% at 0.06 MeV, while it varied between 4–13% for a thickness of 3 cm. The TF results showed that the composites with a thickness of 2, 3, or 5 cm are good shields against lower energy radiation. The radiation absorption ratio (RAR) for the prepared concretes is high at low energy, suggesting that these new composites can absorb most of the low-energy photons. The RAR results emphasize that the increase in CRTs in the new composites enhanced the radiation shielding features, and when the CRT glass is at a maximum, more attenuation was achieved.https://www.mdpi.com/1996-1944/15/15/5316hazardous wastescathode ray tubegamma shielding factorsradiation shielding concrete
spellingShingle M. I. Sayyed
Nouf Almousa
Mohamed Elsafi
Green Conversion of the Hazardous Cathode Ray Tube and Red Mud into Radiation Shielding Concrete
Materials
hazardous wastes
cathode ray tube
gamma shielding factors
radiation shielding concrete
title Green Conversion of the Hazardous Cathode Ray Tube and Red Mud into Radiation Shielding Concrete
title_full Green Conversion of the Hazardous Cathode Ray Tube and Red Mud into Radiation Shielding Concrete
title_fullStr Green Conversion of the Hazardous Cathode Ray Tube and Red Mud into Radiation Shielding Concrete
title_full_unstemmed Green Conversion of the Hazardous Cathode Ray Tube and Red Mud into Radiation Shielding Concrete
title_short Green Conversion of the Hazardous Cathode Ray Tube and Red Mud into Radiation Shielding Concrete
title_sort green conversion of the hazardous cathode ray tube and red mud into radiation shielding concrete
topic hazardous wastes
cathode ray tube
gamma shielding factors
radiation shielding concrete
url https://www.mdpi.com/1996-1944/15/15/5316
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AT mohamedelsafi greenconversionofthehazardouscathoderaytubeandredmudintoradiationshieldingconcrete