Magnetic compatibility of standard components for electrical installations

The electrical distribution boards and control cubicles, installed inside the ITER tokamak building, can be subjected to a constant or slowly variable magnetic field up to 70 mT, 10 mT/s induced by ITER coils. This is a very unusual environmental condition and there are almost no data available on s...

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Published inFusion engineering and design Vol. 75; pp. 179 - 183
Main Authors Hourtoule, J., Houtte, D. van, Fejoz, P., Hertout, P.
Format Journal Article
LanguageEnglish
Published Elsevier B.V 01.11.2005
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ISSN0920-3796
1873-7196
DOI10.1016/j.fusengdes.2005.06.278

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Abstract The electrical distribution boards and control cubicles, installed inside the ITER tokamak building, can be subjected to a constant or slowly variable magnetic field up to 70 mT, 10 mT/s induced by ITER coils. This is a very unusual environmental condition and there are almost no data available on static magnetic field compatibility for the standard industrial, electrical and electronic components, usually installed inside standard low voltage distribution boards and standard control boards. A series of tests has therefore been envisaged, in collaboration with EFDA close support unit [I. Benfatto, P. Bettini, M. Cavinato, A. De Lorenzi, J. Hourtoule, E. Serra, Magnetic compatibility of standard components for electrical installations: computation of the background field and consequences on the design of the electrical distribution boards and control boards for the ITER tokamak building, SOFT Conference Presentation, Venice, September 2004] and the Consorzio RFX [L. Grando, A. De Lorenzi, G. Bettanini, D. Desideri, Magnetic compatibility of standard components for electrical installations: tests on low voltage circuit breakers and contactors, SOFT Conference Presentation, Venice, September 2004], to assess the operational limits of these components. CEA has especially taken in charge the test of electronic, control and signal conditioning units. On this subject, a test bed composed of a solenoid and a 30 V, 800 A power supply, has been developed at CEA Cadarache. Its characteristics are the following: Magnetic field capability: 140 mT Variation of field: up to 10 mT/s Useful dimensions for equipment under test: 500 mm × 500 mm × 500 mm The list of the components to be tested has been identified trying to find common and recent components of different manufacturers. Test procedures have been written following the most relevant IEC standards and manufacturing recommendations and procedures. Magnetic compatibility tests on the basic components of standard low voltage control boards have been performed. All components tested are more or less sensitive to magnetic fields and the effect varies from the simple perturbation of the output signals to the partial destruction of some electronic card. The most sensitive are the ferromagnetic components like small power supply transformers, relays, inductors, etc. For power supplies, the most important consequence is the increase of the consumption (primary current). For most of the conditioning units (signal treatment), the operational limits were found in the range of 30 mT (destruction of power supply filter by over current and overload of the supply). For PLC central units tested, the limit is in the order of 40 mT (components permanently out of service). Relays are limited to 15 mT (outputs oscillations, no commutation). The paper will present, in detail, the methods and the results of these tests giving recommendations for future analysis.
AbstractList The electrical distribution boards and control cubicles, installed inside the ITER tokamak building, can be subjected to a constant or slowly variable magnetic field up to 70 mT, 10 mT/s induced by ITER coils. This is a very unusual environmental condition and there are almost no data available on static magnetic field compatibility for the standard industrial, electrical and electronic components, usually installed inside standard low voltage distribution boards and standard control boards. A series of tests has therefore been envisaged, in collaboration with EFDA close support unit [I. Benfatto, P. Bettini, M. Cavinato, A. De Lorenzi, J. Hourtoule, E. Serra, Magnetic compatibility of standard components for electrical installations: computation of the background field and consequences on the design of the electrical distribution boards and control boards for the ITER tokamak building, SOFT Conference Presentation, Venice, September 2004] and the Consorzio RFX [L. Grando, A. De Lorenzi, G. Bettanini, D. Desideri, Magnetic compatibility of standard components for electrical installations: tests on low voltage circuit breakers and contactors, SOFT Conference Presentation, Venice, September 2004], to assess the operational limits of these components. CEA has especially taken in charge the test of electronic, control and signal conditioning units. On this subject, a test bed composed of a solenoid and a 30 V, 800 A power supply, has been developed at CEA Cadarache. Its characteristics are the following: Magnetic field capability: 140 mT Variation of field: up to 10 mT/s Useful dimensions for equipment under test: 500 mm × 500 mm × 500 mm The list of the components to be tested has been identified trying to find common and recent components of different manufacturers. Test procedures have been written following the most relevant IEC standards and manufacturing recommendations and procedures. Magnetic compatibility tests on the basic components of standard low voltage control boards have been performed. All components tested are more or less sensitive to magnetic fields and the effect varies from the simple perturbation of the output signals to the partial destruction of some electronic card. The most sensitive are the ferromagnetic components like small power supply transformers, relays, inductors, etc. For power supplies, the most important consequence is the increase of the consumption (primary current). For most of the conditioning units (signal treatment), the operational limits were found in the range of 30 mT (destruction of power supply filter by over current and overload of the supply). For PLC central units tested, the limit is in the order of 40 mT (components permanently out of service). Relays are limited to 15 mT (outputs oscillations, no commutation). The paper will present, in detail, the methods and the results of these tests giving recommendations for future analysis.
Author Hourtoule, J.
Houtte, D. van
Hertout, P.
Fejoz, P.
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Keywords Power supplies
Magnetic field compatibility
Control boards
Relays
PLC
Language English
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References P. Hertout, J. Hourtoule, Magnetic field induced by the protection copper coil of the superconducting joint testing facility, CEA/DRFC Internal note, AIM/NTT 2003.049.
J. Hourtoule, Magnetic field compatibility of components and devices for low voltage electrical distribution boards, Lists of components and tests procedures, CEA/DRFC Internal note, DEL/NTT 2004.002.
J. Hourtoule, Description of Tore Supra test facility for magnetic field compatibily of ITER, CEA/DRFC Internal note, DEL/NTT 2004.003.
J. Hourtoule, Survey of magnetic field compatibility of component and devices for low voltage electrical distribution boards, CEA/DRFC Internal note, DEL/NTT 2003.005.
J. Hourtoule, Magnetic field compatibility of components and devices for low voltage electrical distribution boards, Test campaign, CEA/DRFC Internal note, DEL/NTT 2004.004.
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– reference: J. Hourtoule, Description of Tore Supra test facility for magnetic field compatibily of ITER, CEA/DRFC Internal note, DEL/NTT 2004.003.
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Snippet The electrical distribution boards and control cubicles, installed inside the ITER tokamak building, can be subjected to a constant or slowly variable magnetic...
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StartPage 179
SubjectTerms Control boards
Magnetic field compatibility
PLC
Power supplies
Relays
Title Magnetic compatibility of standard components for electrical installations
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