ALMisned Ghada, Baykal Duygu Sen, Kilic G, Ilik E, Rabaa Elaf, Susoy G, Zakaly Hesham M H, Ene Antoaneta, Tekin H O
Department of Physics, College of Science, Princess Nourah Bint Abdulrahman University, P.O. Box 84428, Riyadh, 11671, Saudi Arabia.
Istanbul Kent University, Vocational School of Health Sciences, Medical Imaging Techniques, Istanbul, 34433, Turkiye.
Heliyon. 2023 Mar 7;9(3):e14274. doi: 10.1016/j.heliyon.2023.e14274. eCollection 2023 Mar.
This study's primary objective is to provide the preliminary findings of novel research on the design of Indium (III) oxide-reinforced glass container that were thoroughly developed for the purpose of a nuclear material container for transportation and waste management applications. The shielding characteristics of an Indium (III) oxide-reinforced glass container with a certain elemental composition against the Co radioisotope was thoroughly evaluated. The energy deposition in the air surrounding the designed portable glass containers is measured using MCNPX general-purpose Monte Carlo code. Simulation studies were carried out using Lenovo-P620 workstation and the number of tracks was defined as 10 in each simulation phase. According to results, the indium oxide-doped C6 (TZI8) container exhibits superior protective properties compared to other conventional container materials such as 0.5Bitumen-0.5 Cement, Pb Glass composite, Steel-Magnetite concrete. In addition to its superiority in terms of nuclear safety, it is proposed that the source's simultaneous observation and monitoring, as well as the C6 (TZI8) glass structure's transparency, be underlined as significant advantages. High-density glasses, which may replace undesirable materials such as concrete and lead, provide several advantages in terms of production ease, non-toxic properties, and resource monitoring. In conclusion, the use of Indium (III) oxide-reinforced glass with its high transparency and outstanding protection properties may be a substantial choice in places where concrete is required to ensure the safety of nuclear materials.
本研究的主要目的是提供关于氧化铟增强玻璃容器设计的新研究的初步结果,该容器是为用于运输和废物管理应用的核材料容器而全面开发的。对具有特定元素组成的氧化铟增强玻璃容器对钴放射性同位素的屏蔽特性进行了全面评估。使用MCNPX通用蒙特卡罗代码测量设计的便携式玻璃容器周围空气中的能量沉积。使用联想P620工作站进行了模拟研究,每个模拟阶段的轨迹数量定义为10。根据结果,与其他传统容器材料如0.5沥青 - 0.5水泥、铅玻璃复合材料、钢 - 磁铁矿混凝土相比,掺杂氧化铟的C6(TZI8)容器具有优异的防护性能。除了在核安全方面的优越性外,该源的同时观察和监测以及C6(TZI8)玻璃结构的透明度被认为是显著优点。高密度玻璃可以替代混凝土和铅等不良材料,在生产便利性、无毒特性和资源监测方面具有几个优点。总之,使用具有高透明度和出色防护性能的氧化铟增强玻璃可能是在需要混凝土以确保核材料安全的地方的一个重要选择。