Identification of a defected fuel rod in the TRIGA R.C.-1 facility of the ENEA Casaccia Research Center: radiation protection aspects

The nuclear facility TRIGA RC-1 is located at the ENEA Casaccia Research Center in Rome. It is a thermal spectrum research reactor with a thermal power of 1 MW and a Mark III containment. The failure of the fuel cladding of the General Atomic TRIGA is a well-known phenomenon in the literature and is...

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Veröffentlicht in:European physical journal plus 2023-11, Vol.138 (11), p.1023, Article 1023
Hauptverfasser: Sperandio, Luciano, Lepore, Luigi, Borra, Enrico Maria, Ciciani, Luca, Fabrizio, Valentina, Falconi, Luca, Formenton, Davide, Iorio, Maria Grazia, Puddu, Valerio, Rizzo, Alessandro, Roberti, Andrea, Ruscitti, Stefano, Scaramuzzo, Luigi, Vilardi, Ignazio
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container_title European physical journal plus
container_volume 138
creator Sperandio, Luciano
Lepore, Luigi
Borra, Enrico Maria
Ciciani, Luca
Fabrizio, Valentina
Falconi, Luca
Formenton, Davide
Iorio, Maria Grazia
Puddu, Valerio
Rizzo, Alessandro
Roberti, Andrea
Ruscitti, Stefano
Scaramuzzo, Luigi
Vilardi, Ignazio
description The nuclear facility TRIGA RC-1 is located at the ENEA Casaccia Research Center in Rome. It is a thermal spectrum research reactor with a thermal power of 1 MW and a Mark III containment. The failure of the fuel cladding of the General Atomic TRIGA is a well-known phenomenon in the literature and is normally expected during its lifetime. Depending on the severity of the cracking, this results in the transfer of radioactivity from inside the fuel rods to the demineralized moderation and cooling water of the primary circuit. This occurs especially when the fuel is heated, as the temperature rise leads to an increase in the internal pressure inside the rods, causing fission products, especially gaseous ones, to be released through the cracks. The sustained release of these fission products over time causes impurities with longer half-lives (e.g., Cs-137) to accumulate in the primary water purification system and, in particular, in the ion exchange resin tank. Therefore, the detection of Cs-137 in the ion exchange resins of the primary water purification system of the reactor is a sufficiently clear indication of the occurrence of such disturbances. Indeed, Cs-137 is not only a direct fission product of U-235, but is also produced by the decay of Xe-137 (one of the major fission noble gasses), which, because of its physical nature, readily escapes through the rod cladding. To ensure worker protection from ionizing radiation during the identification and replacement of defective fuel rods, a special program of physical, environmental, and personal radiation protection monitoring was conducted. In addition to a brief description of the work performed, this report presents the results of radiometric measurements and associated individual dose assessment performed before, during, and after the identification and replacement of the defected fuel elements.
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Phys. J. Plus</stitle><date>2023-11-16</date><risdate>2023</risdate><volume>138</volume><issue>11</issue><spage>1023</spage><pages>1023-</pages><artnum>1023</artnum><issn>2190-5444</issn><eissn>2190-5444</eissn><abstract>The nuclear facility TRIGA RC-1 is located at the ENEA Casaccia Research Center in Rome. It is a thermal spectrum research reactor with a thermal power of 1 MW and a Mark III containment. The failure of the fuel cladding of the General Atomic TRIGA is a well-known phenomenon in the literature and is normally expected during its lifetime. Depending on the severity of the cracking, this results in the transfer of radioactivity from inside the fuel rods to the demineralized moderation and cooling water of the primary circuit. This occurs especially when the fuel is heated, as the temperature rise leads to an increase in the internal pressure inside the rods, causing fission products, especially gaseous ones, to be released through the cracks. 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subjects Applied and Technical Physics
Atomic
Complex Systems
Condensed Matter Physics
Cooling
Cooling water
Demineralizing
Fission products
Focus Point on Radiation Protection Issues in the Enviroment and Workplaces
Internal pressure
Ion exchange
Ion exchange resins
Ionizing radiation
Mathematical and Computational Physics
Molecular
Nuclear facilities
Nuclear fuel elements
Nuclear reactors
Optical and Plasma Physics
Physics
Physics and Astronomy
Primary circuits
Radiation
Radiation protection
Radioactivity
Reactors
Regular Article
Research centers
Research facilities
Resins
Scientific imaging
Sensors
Sustained release
Theoretical
Thermal power
Water purification
title Identification of a defected fuel rod in the TRIGA R.C.-1 facility of the ENEA Casaccia Research Center: radiation protection aspects
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