We are designing two electron lenses (E-lens) to compensate for the large beam-beam tune spread from proton-proton interactions at IP6 and IP8 in the Relativistic Heavy Ion Collider (RHIC). They will be installed at RHIC IR10. The transverse fields of the E-lenses bending solenoids and the fringe field of the main solenoids will shift the proton beam. We calculate the transverse kicks that the proton beam receives in the electron lens via Opera. Then, after incorporating the simplified E-lens lattice in the RHIC lattice, we obtain the closed orbit effect with the Simtrack Code
To compensate for the beam-beam effects from the proton-proton interactions at IP6 and IP8 in the Re...
Electron lenses for head-on beam-beam compensation will be installed in IP 10 at RHIC. Compensation ...
Electron lenses are a mature technique for beam manipulation in colliders and storage rings. In an e...
We are designing two electron lenses (E-lens) to compensate for the large beam-beam tune spread from...
In this note we calculate the effect of the electron lense solenoids on the proton optics. Electron ...
Two electron lenses (e-lenses) have been in operation during the 2015 RHIC physics run as part of a ...
Beam experiments have been performed in RHIC to determine some key parameters of the RHIC electron l...
To compensate the large beam–beam tune spread and beam–beam resonance driving terms in the polarized...
To compensate the large beam-beam tune spread and beam-beam resonance driving terms in the polarized...
In this note we summarize the calculated particle loss of a proton bunch in the presence of head-on ...
To compensate for the beam-beam effects from the proton-proton interactions at IP6 and IP8 in the Re...
In this note we summarize the calculated 10{sup 6} turn dynamic apertures with the proposed head-on ...
To apply head-on beam-beam compensation for RHIC, two electron lenses are designed and will be insta...
An Electron Lens (E-Lens) system will be installed in RHIC to increase luminosity by counteracting t...
To compensate the beam-beam tune spread and beam-beam resonance driving terms in the polarized proto...
To compensate for the beam-beam effects from the proton-proton interactions at IP6 and IP8 in the Re...
Electron lenses for head-on beam-beam compensation will be installed in IP 10 at RHIC. Compensation ...
Electron lenses are a mature technique for beam manipulation in colliders and storage rings. In an e...
We are designing two electron lenses (E-lens) to compensate for the large beam-beam tune spread from...
In this note we calculate the effect of the electron lense solenoids on the proton optics. Electron ...
Two electron lenses (e-lenses) have been in operation during the 2015 RHIC physics run as part of a ...
Beam experiments have been performed in RHIC to determine some key parameters of the RHIC electron l...
To compensate the large beam–beam tune spread and beam–beam resonance driving terms in the polarized...
To compensate the large beam-beam tune spread and beam-beam resonance driving terms in the polarized...
In this note we summarize the calculated particle loss of a proton bunch in the presence of head-on ...
To compensate for the beam-beam effects from the proton-proton interactions at IP6 and IP8 in the Re...
In this note we summarize the calculated 10{sup 6} turn dynamic apertures with the proposed head-on ...
To apply head-on beam-beam compensation for RHIC, two electron lenses are designed and will be insta...
An Electron Lens (E-Lens) system will be installed in RHIC to increase luminosity by counteracting t...
To compensate the beam-beam tune spread and beam-beam resonance driving terms in the polarized proto...
To compensate for the beam-beam effects from the proton-proton interactions at IP6 and IP8 in the Re...
Electron lenses for head-on beam-beam compensation will be installed in IP 10 at RHIC. Compensation ...
Electron lenses are a mature technique for beam manipulation in colliders and storage rings. In an e...