Mapping of processes and risks in the digital transformation in metrology of ionizing radiation, a case study in X-rays air kerma calibration

I. Garcia, Jeovana Santos Ferreira, Eric Matos Macedo, Marcos Vinicius Teixeira Navarro, José Guilherme Pereira Peixoto
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Abstract

For the new metrological challenges of an increasingly digitized world, several countries are developing applications and infrastructure for Digital Calibration Certificates – DCC, researching the comparability of real and virtual measurements. Objective: to map the processes and risks related to the digital transformation of X-rays air kerma calibration. The Failure Mode and Effect Analysis - FMEA was used to quantify risks and is widely used in the aviation and automotive industry due to its reliability. The results presented a conceptual model for calibrating ionizing radiation quantities in the framework of new technologies and calibration 4.0 and comparing processes and risks. The conceptual model of calibration 4.0 comprises three main parts: a transmitter, the 4.0 communication network, and a receiver. Intelligent devices with configurations enable calibration data transfers by radio-frequency messaging in all these parts. Comparing risks in contemporary and calibration 4.0 processes, a slight reduction in the total risk can be observed. But new risks are unique to the 4.0 model, all with maximum severity, and how to mitigate them is still unknown. It is also possible to estimate that artificial intelligence and automation can significantly reduce measurement risks, identification, and error in the analysis and use of calibration certificates.
电离辐射计量数字化转型中的过程和风险映射,以x射线空气温度校准为例
为了应对日益数字化的世界所带来的新的计量挑战,一些国家正在开发数字校准证书(DCC)的应用程序和基础设施,研究真实测量和虚拟测量的可比性。目的:探讨x射线空气热定标数字化转换的相关过程和风险。失效模式和影响分析(FMEA)是一种用于量化风险的方法,由于其可靠性在航空和汽车工业中得到了广泛的应用。结果提出了在新技术和校准4.0框架下校准电离辐射量的概念模型,并比较了过程和风险。校准4.0的概念模型包括三个主要部分:发射器、4.0通信网络和接收器。具有配置的智能设备可以通过射频信息在所有这些部件中传输校准数据。比较当代和校准4.0过程的风险,可以观察到总风险略有降低。但新的风险是4.0模型所独有的,所有风险都具有最大的严重性,如何减轻它们仍然是未知的。也可以估计,人工智能和自动化可以显着减少分析和使用校准证书中的测量风险、识别和错误。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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