测定ALARA的虚拟辐射场

T. Knight
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引用次数: 3

摘要

随着计算能力的提高,对复杂系统和过程进行建模和模拟的能力也在提高。此外,虚拟现实技术使得可视化和理解许多复杂的科学和工程问题成为可能。为此,开发了一种称为虚拟辐射场(VRF)的虚拟剂量学程序,以模拟在虚拟辐射环境中操作的受体的辐射剂量率和累积剂量。由于许多设施和产品的设计和测试都是在虚拟世界中进行的,因此该计划有助于在设计过程中同时考虑辐射问题。通过使用IGRIP(一种由Deneb机器人公司开发的图形建模程序),辐射环境的三维(3D)图形表示成为可能。设计了VRF仿真程序,对虚拟剂量计进行建模和显示。作为该计划能力的演示,汉福德坦克C-106被建模来预测用于从坦克中清除放射性废物的机器人设备的辐射剂量。为了验证VRF剂量预测,与C-106坦克的报告值进行了比较,结果显示一致性在0.5%以内。给出了罐内三维剂量率变化的图形信息。对C-106储罐的清理工作进行了累积剂量预测。利用VRF生成的四维剂量率图,不仅在三维空间中对剂量率进行建模,而且还将剂量率作为槽内剩余废物量的函数进行建模。这使VRF能够在废物清除过程的任何阶段预测剂量率,以便准确模拟整个储罐清理程序的辐射条件。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Virtual radiation fields for ALARA determination
As computing power has increased, so too has the ability to model and simulate complex systems and processes. In addition, virtual reality technology has made it possible to visualize and understand many complex scientific and engineering problems. For this reason, a virtual dosimetry program called Virtual Radiation Fields (VRF) is developed to model radiation dose rate and cumulative dose to a receptor operating in a virtual radiation environment. With the design and testing of many facilities and products taking place in the virtual world, this program facilitates the concurrent consideration of radiological concerns during the design process. Three-dimensional (3D) graphical presentation of the radiation environment is made possible through the use of IGRIP, a graphical modeling program developed by Deneb Robotics, Inc. The VRF simulation program was designed to model and display a virtual dosimeter. As a demonstration of the program`s capability, the Hanford tank, C-106, was modeled to predict radiation doses to robotic equipment used to remove radioactive waste from the tank. To validate VRF dose predictions, comparison was made with reported values for tank C-106, which showed agreement to within 0.5%. Graphical information is presented regarding the 3D dose rate variation inside the tank. Cumulative dose predictions were made for the cleanup operations of tank C-106. A four-dimensional dose rate map generated by VRF was used to model the dose rate not only in 3D space but also as a function of the amount of waste remaining in the tank. This allowed VRF to predict dose rate at any stage in the waste removal process for an accurate simulation of the radiological conditions throughout the tank cleanup procedure.
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