THE TECHNOLOGY OF SUPERCONDUCTING ACCELERATOR DIPOLES
W.V. Hassenzahl
Abstract
Open-access reader
W.V. Hassenzahl
Abstract
Open-access reader
We discuss accelerator dipoles and their characteristics. Other types of magnets, in particular bubble chamber magnets have been quite successful. Their performance is based on cryogenic stability which is addressed only briefly in this chapter. This type of stability is not available to the accelerator designer because of the large quantities of copper or other stabilizer that would reduce the current density in the windings to an unacceptably low value.
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We discuss accelerator dipoles and their characteristics. Other types of magnets, in particular bubble chamber magnets have been quite successful. Their performance is based on cryogenic stability which is addressed only briefly in this chapter. This type of stability is not available to the accelerator designer because of the large quantities of copper or other stabilizer that would reduce the current density in the windings to an unacceptably low value.
Key concepts: Linear particle accelerator, Particle accelerator, Nuclear physics, Physics, Division (mathematics), Dipole, Engineering physics, Center (category theory)