A. Torkamani, Alexander Khelvas, A. Bugaev, Farshad Ghasemi
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引用次数: 0
Abstract
The most widely used isotope for medical imaging is Technetium-99m. The purpose of the research was to propose the architecture of solution for Technetium-99m Production by Linear Electron Accelerator (LINAC) and Rhodotron. This radionuclide Technetium-99m is produced via Molybdenum-99 beta minus decay. The Monte Carlo calculations were used for this purpose on the base of MCNPX framework. These calculations provide an advanced analysis of the various modes which will result in optimal design. We intend to use the simulation and the code calculation based on Monte Carlo.
医学成像中最广泛使用的同位素是锝-99m。本研究的目的是提出直线电子加速器(Linear Electron Accelerator, LINAC)与回旋加速器(Rhodotron)生产锝-99m的解决方案架构。这种放射性核素锝-99m是通过钼-99负衰变产生的。为此,在MCNPX框架的基础上使用蒙特卡罗计算。这些计算提供了对各种模式的高级分析,这将导致最佳设计。我们打算采用蒙特卡罗方法进行仿真和代码计算。