The CEBAF accelerator beam transport system contains 104 sextupoles to correct chromatic aberrations. We describe the layout of these elements and discuss schemes for suppressing chromatic errors. Analytic results for the required sextupole strengths are given and computations of chromatic aberrations are documented. Numerical results using two correction methods are provided
During commissioning of the CEBAF accelerator, correcting dispersion, momentum compaction and betatr...
The chromaticity produced by the insertions and the lattice of LEP is corrected in the FODO lattice ...
The correction of the chromaticity of low-beta insertions in the storage rings is usually made with ...
The CEBAF accelerator design is a recirculating, superconducting, cw, electron linac producing beams...
The details of a tuning algorithm are described for minimizing the chromatic error in a final focus ...
A new method of correcting chromaticities of circular accelerators is introduced. Instead of using t...
A new method of correcting chromaticities of circular accelerators is introduced. Instead of using t...
The use of recirculation in linear accelerator designs requires beam transport systems that will not...
A description of error analyses and computer modeling of the CEBAF transport system is given. The im...
The second-order achromat princople is used to correct the chromatic aberrations in a representative...
The Fermilab Main Injector (FMI) is a high intensity proton synchrotron which will be used to accele...
Optics parameters such as betatron tunes, beta functions, and dispersions depend on momentum deviati...
Local chromaticity correction of a low-beta region can under certain conditions enhance the momentum...
Chromaticity control in the Fermilab Main Injector will be important both in accelerating protons an...
During commissioning of the CEBAF accelerator, correcting dispersion, momentum compaction and betatr...
During commissioning of the CEBAF accelerator, correcting dispersion, momentum compaction and betatr...
The chromaticity produced by the insertions and the lattice of LEP is corrected in the FODO lattice ...
The correction of the chromaticity of low-beta insertions in the storage rings is usually made with ...
The CEBAF accelerator design is a recirculating, superconducting, cw, electron linac producing beams...
The details of a tuning algorithm are described for minimizing the chromatic error in a final focus ...
A new method of correcting chromaticities of circular accelerators is introduced. Instead of using t...
A new method of correcting chromaticities of circular accelerators is introduced. Instead of using t...
The use of recirculation in linear accelerator designs requires beam transport systems that will not...
A description of error analyses and computer modeling of the CEBAF transport system is given. The im...
The second-order achromat princople is used to correct the chromatic aberrations in a representative...
The Fermilab Main Injector (FMI) is a high intensity proton synchrotron which will be used to accele...
Optics parameters such as betatron tunes, beta functions, and dispersions depend on momentum deviati...
Local chromaticity correction of a low-beta region can under certain conditions enhance the momentum...
Chromaticity control in the Fermilab Main Injector will be important both in accelerating protons an...
During commissioning of the CEBAF accelerator, correcting dispersion, momentum compaction and betatr...
During commissioning of the CEBAF accelerator, correcting dispersion, momentum compaction and betatr...
The chromaticity produced by the insertions and the lattice of LEP is corrected in the FODO lattice ...
The correction of the chromaticity of low-beta insertions in the storage rings is usually made with ...