In the Large Hadron Collider (LHC), which is currently being developed at CERN, about 50,000 connections of superconducting wire will be necessary to implement all circuits for powering 6000 corrector magnets with a maximum current of 600 A. To minimise the generation of ohmic heat in the cryogenic system, it is necessary to reduce the contact resistance of these connections as much as possible. This paper describes a method to measure contact resistances of splices of superconducting wires, which has been used to optimise such connections. Additionally we present results of a number of measurements on different types of connections. (2 refs)
The Large Hadron Collider (LHC) is a high energy, high luminosity particle accelerator under constru...
Current distribution among the wires of multi-strand superconducting cables is an important item for...
Electrical joints for the aluminum stabilized conductors of the LHC experiment magnets have been stu...
At each interconnection between LHC main magnets a low-resistance solder joint must be made between ...
The electrical interconnections between the LHC main magnets are made of soldered joints (splices) o...
For the consolidation of the LHC main interconnection splices it is planned to solder shunts onto ea...
The high magnetic fields needed for guiding particles around the Large Hadron Collider (LHC) ring ar...
The electrical resistance of LHC main busbar cable splices without busbar Cu stabiliser at 4.3 K has...
For the consolidation of the LHC 13 kA main interconnection splices, shunts will be soldered onto ea...
The interconnections between the LHC main magnets are made of soldered joints (splices) of two super...
Following the QPS review in February 2009, a potential source of problems with the main circuit bus ...
"It is necessary to apply extra large scale superconducting magnets for a fusion device like Large H...
The application of joints which can be disassembled is studied within the framework of the developme...
A short test version of coil of wire used for the LHC dipole magnets. The high magnetic fields neede...
The Large Hadron Collider (LHC) project is the largest plant based on superconductivity and cryogeni...
The Large Hadron Collider (LHC) is a high energy, high luminosity particle accelerator under constru...
Current distribution among the wires of multi-strand superconducting cables is an important item for...
Electrical joints for the aluminum stabilized conductors of the LHC experiment magnets have been stu...
At each interconnection between LHC main magnets a low-resistance solder joint must be made between ...
The electrical interconnections between the LHC main magnets are made of soldered joints (splices) o...
For the consolidation of the LHC main interconnection splices it is planned to solder shunts onto ea...
The high magnetic fields needed for guiding particles around the Large Hadron Collider (LHC) ring ar...
The electrical resistance of LHC main busbar cable splices without busbar Cu stabiliser at 4.3 K has...
For the consolidation of the LHC 13 kA main interconnection splices, shunts will be soldered onto ea...
The interconnections between the LHC main magnets are made of soldered joints (splices) of two super...
Following the QPS review in February 2009, a potential source of problems with the main circuit bus ...
"It is necessary to apply extra large scale superconducting magnets for a fusion device like Large H...
The application of joints which can be disassembled is studied within the framework of the developme...
A short test version of coil of wire used for the LHC dipole magnets. The high magnetic fields neede...
The Large Hadron Collider (LHC) project is the largest plant based on superconductivity and cryogeni...
The Large Hadron Collider (LHC) is a high energy, high luminosity particle accelerator under constru...
Current distribution among the wires of multi-strand superconducting cables is an important item for...
Electrical joints for the aluminum stabilized conductors of the LHC experiment magnets have been stu...