Our transducer range is the result of more than 30 years experience in supplying high reliability instrumentation to reactor operators worldwide.
| 1972 |
First successful characterization of the piezoelectric accelerometer CA901 at 580°C (1,076°F) by Electricité de France, Les Renardières. |
1976 |
Hanford Engineering Development Laboratory (Westinghouse) qualified a high temperature accelerometer (CA109) for radiation and liquid sodium environment.
|
1979 |
Biaxial accelerometer (CA602) and dynamic pressure transducer (CP103) qualified for advanced gas cooled (AGR). |
1982 |
Babcock & Wilcox qualified the biaxial accelerometer (CA602), the accelerometer (CA952), and the dynamic pressure transducer (CP103) to NRC Guide 1.20 for the start up and Hot Functional Test (HFT). |
1982-2008 |
Siemens qualified the Loose Parts Monitoring Accelerometer (CA901) for their monitoring systems (NRC Guide 1.133 or DIN 25.475). |
1982-
2001 |
Various start up and HFT instrumentation for AGR, PWR, BWR, and VVER worldwide. |
1985
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Delivery of the instrumentation for the Mitsubishi APWR reactor internal measurements using CA109, CA602, and CP103. |
1985 |
Delivery of the instrumentation for the Toshiba ABWR reactor internals measurements using CA602, CA901, and CP104. |
1990 |
Development of high temperature miniature biaxial accelerometer (CA606) for Toshiba fuel research program (9x9 BWR fuel). |
1991 |
LPMS and Reactor Internals Vibration Monitoring System with CA952 and acoustic emission sensors (AT150) delivered to Framatome for Guangdong. |
1993 |
First fuel pin testing inside the neutron detector tubes of an operating reactor using the high temperature miniature biaxial accelerometer (CA606). |
1996 |
LPMS (with new CA164 accelerometers) retrofitted the Westinghouse PWR's at Beznau, Switzerland. |
1997 |
Fuel pin monitoring inside the neutron detector tubes of an operating reactor using the high temperature miniature biaxial accelerometer (CA607) for Gundremmingen BWR. |
1997 |
Qualification program for the CA962 accelerometer for Reactor Internal Vibration Monitoring of VVER by Skoda/Westinghouse for Temelin. |
1997 |
ABB Combustion Engineering. Yonggwang 4, KEPCO Republic of Korea. Biaxial accelerometer CA 602 and dynamic pressure transducer CP 103. Start up and HFT of Korean standard PWR 900 MW. |
1998 |
Framatome ANP (Siemens) evaluated the CA962 accelerometer with IPC629 and GSI130 electronics for Reactor Internal Vibration Monitoring for the EPR. |
2004 |
GE Quad Cities BWR 3
Dynamic pressure transducer CP 104 M601 and accelerometer CA 901 M501 with cables and remote charge converters IPC 629, galvanic separation module GSI 130 and vibration/pressure processor UVC 689. Power Expansion Programme, primary circuit Flow Induced Vibration Programme. |
2006 |
CEA CAdarache, miniature biaxial Accelerometer CA 607 in fuel pin for PWR flow induced vibration and LOCA simulation with charge converter IPC 629 and galvanic separation GSI 130. |
2007 |
GE Susquehanna 1 BWR 4
Dynamic pressure transducer CP 104 M601 and accelerometer CA 901 M501 with cables and remote charge converters IPC 629, galvanic separation module GSI 130 and vibration/pressure processor UVC 689. Power Expansion Programme, primary circuit Flow Induced Vibration Programme. |
2007 |
GE ESBWR selected transducers for primary circuit Flow Induced Vibration Programme.
Dynamic pressure transducer CP 104 M601 and CP 211 M072 and accelerometer CA 901 M511 with cables and remote charge converters IPC 629, galvanic separation module GSI 130. |
2008 |
AREVA for EPR Olkiluoto 3, Finland
Accelerometer CA 952 for secondary piping system vibration measurement and Loose Parts Monitoring Accelerometer CA901. |
2008 |
Trillo 1 PWR Spain, Accelerometer CA 901, CA 962 with electronics IPC629 and GSI 130 and VM600.
Loose Parts and reactor internals vibration monitoring. |
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