Development of an automated source port in IoT for application in industrial process tomography

Diego Vergaças de Sousa Carvalho; Carlos Henrique de Mesquita; Gustavo Martinez Gregianin

doi:10.15392/bjrs.v9i1A.1349

Autores/as

Diego Vergaças de Sousa Carvalho Instituto de Pesquisas Energéticas e Nucleares https://orcid.org/0000-0001-5935-1460 (no autenticado)
Carlos Henrique de Mesquita Instituto de Pesquisas Energéticas e Nucleares
Gustavo Martinez Gregianin FATEC Zona Sul , FATEC Zona Sul

DOI:

https://doi.org/10.15392/bjrs.v9i1A.1349

Palabras clave:

source ports, Internet of Things, Industrial Process Tomography

Resumen

Computed tomography technology uses an electromagnetic radiation source or particulate radiation source, to analyze / study different samples that can range from living organisms to the most diverse objects (rocks, phantoms, etc.). The use of the radioactive materials may cause harm to the operator if he is exposed to the source of radiation, so aiming at the safety of the operator, the objective of this work is to develop an Internet of Things automation system for the opening of the Industrial Process Tomography source port for industrial tomography applications. Thus, this system can drive the stepper motors through this platform can be opened at a safe distance to the operator, avoiding the operator to take radiation dose to perform this operation. For the IPT project, five source ports were made so that each was positioned diametrically opposite each array of detectors. In this project we used 192Ir sources that have activity of 18,500 MBq and that were produced in the reactor IEA-R1, from the neutron bombardment of the pellet containing stable isotope 191Ir. The main characteristics of 192Ir are: half-life of 74.2 days; radiation energy from 0.13 to 0.65 MeV. For the safety of the operator during the opening of the sources, an automated opening system with IoT that can be activated with software installed on the tomography or by a smartphone application by the MQTT protocol, which makes it possible to be monitored in real time at long distance showing the opening and closing status of each source port.

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Biografía del autor/a

Diego Vergaças de Sousa Carvalho, Instituto de Pesquisas Energéticas e Nucleares

PhD in Science of Nuclear Technology Application at University of Sao Paulo Nuclear and Energy Research Institute USP / IPEN with CNPq Scholarship (2014), Degree in Physics Degree by Faculties Oswaldo Cruz (2011) and Technician in Electronics Manufacturing Automation by SENAI Anchieta School (2003) ). Specialist in Industrial Tomography, Nuclear Instrumentation, Radiological Protection, Electronics, Microcontrollers, Electronic Instrumentations, Non-Destructive Analyzes. Professor of Physics, Chemistry, Mathematics, Electronics and Astronomy. Science Lab teaching specialist. Use of Excel, Word, PowerPoint, Linux (basic), Arduino, Proteus and programming languages in Python (basic) and C # (basic).
Carlos Henrique de Mesquita, Instituto de Pesquisas Energéticas e Nucleares

bachelor's at Física from Pontifícia Universidade Católica de São Paulo (1977), master's at Nuclear Engineering from Universidade de São Paulo (1983) and doctorate at Tecnologia Nucler Básica from Instituto de Pesquisas Energéticas e Nucleares-USP (1991). Has experience in Nuclear Engineering, focusing on Applications of Radioisotopes, acting on the following subjects: Compartmental analysis, kinectical analysis, radiation detectors, mathematical models, nuclear electronics and radioactivity applications
Gustavo Martinez Gregianin, FATEC Zona Sul, FATEC Zona Sul

Possui curso-tecnico-profissionalizante em Pré-impressão gráfica pela SENAI - Departamento Regional de São Paulo(2011) e ensino-medio-segundo-graupelo Instituto Paralelo de Ensino(2002). Tem experiência na área de Ciência da Computação, com ênfase em Metodologia e Técnicas da Computação.

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