The DC current transducer (DCCT) and accompanying A/D converter determine the precision of a power converter in accelerator operation. In the LHC context this precision approaches 10-6 (1 ppm). Inside the DCCT a burden resistor is used to convert the current to an output voltage. The performance of this resistor is crucial for the accuracy, temperature behaviour, settling time and longterm drift of the DCCT. This paper reports on evaluations, a new parameter called âワpower coefficientâ (PC) and test results from some different types of resistors available on the market
During quench tests in 2011 variations in resistance of an order of magnitude were found in the diod...
Technology scaling has led to the production of more low power devices and has made the design proce...
The initial results from integration testing of the LHC magnet power converters revealed problems of...
The DC current transducer (DCCT) and accompanying A/D converter determine the precision of a power c...
The evaluation of high performance DCCT's to the ppm level has never been an easy task. With the LHC...
The initial results from integration testing of the LHC magnet power converters revealed problems of...
Power converters in the accelerator context are often required to deliver a performance that is unus...
The magnet power converters for LHC were procured in three parts, power part, current transducers an...
CERN's next generation particle accelerator, the large hadron collider (LHC) requires accurate curre...
The Large Hadron Collider (LHC) is CERN's next particle accelerator project, scheduled for commissio...
Since restarting at the end of 2009, the LHC has reached a new energy record in March 2010 with the ...
The Large Hadron Collider (LHC) is the next accelerator being constructed on the CERN site. It will ...
The LHC will require over 1700 magnet power converters, some of which will need an unprecedented pre...
The design of the latest CERN particle accelerator for high energy particle physics research, the La...
A high-precision voltage buffer and a 10:1 resistive voltage divider have been constructed for use i...
During quench tests in 2011 variations in resistance of an order of magnitude were found in the diod...
Technology scaling has led to the production of more low power devices and has made the design proce...
The initial results from integration testing of the LHC magnet power converters revealed problems of...
The DC current transducer (DCCT) and accompanying A/D converter determine the precision of a power c...
The evaluation of high performance DCCT's to the ppm level has never been an easy task. With the LHC...
The initial results from integration testing of the LHC magnet power converters revealed problems of...
Power converters in the accelerator context are often required to deliver a performance that is unus...
The magnet power converters for LHC were procured in three parts, power part, current transducers an...
CERN's next generation particle accelerator, the large hadron collider (LHC) requires accurate curre...
The Large Hadron Collider (LHC) is CERN's next particle accelerator project, scheduled for commissio...
Since restarting at the end of 2009, the LHC has reached a new energy record in March 2010 with the ...
The Large Hadron Collider (LHC) is the next accelerator being constructed on the CERN site. It will ...
The LHC will require over 1700 magnet power converters, some of which will need an unprecedented pre...
The design of the latest CERN particle accelerator for high energy particle physics research, the La...
A high-precision voltage buffer and a 10:1 resistive voltage divider have been constructed for use i...
During quench tests in 2011 variations in resistance of an order of magnitude were found in the diod...
Technology scaling has led to the production of more low power devices and has made the design proce...
The initial results from integration testing of the LHC magnet power converters revealed problems of...