In the International Linear Collider (ILC) [1] the colliding beams must be focused to the nanometer size in order to reach the desired luminosity. The method of Weak Antisolenoid is used for the compensation of the effect of the Detector Solenoid on the beam size [2], [3]. The studies of this method require the computer simulation of the charged particle's kinematics in the arbitrarily distributed solenoidal, dipole, quadrupole and higher multipole fields. We suggest the mathematical algorithm that allows to optimize parameters of antisolenoid for different configurations of Final Focus magnets and to compensate parasitic effects of the Detector Solenoid on the beam
online : http://pac07.org/proceedings/PAPERS/THPMN005.PDFInternational audienceconsidered as an alte...
The International Linear Collider (ILC) is a proposal for 500 GeV center-of-mass electron-positron c...
La très haute luminosité visée par les futurs collisionneurs linéaires nécessite une très forte foca...
In this paper, we discuss the optics effects of the realistic detector solenoid field on beam size a...
In order to obtain the necessary luminosity with a reasonable amount of beam power, the Compact Line...
Strong focalisation of the beam is mandatory at the interaction point of the future linear collider ...
This paper presents calculations of detector solenoid effects on disrupted primary beam in the ILC 1...
The International Linear Collider (ILC) will be a pair of linear accelerators (LINACs) that accelera...
This paper presents a method for compensating the vertical orbit change through the interaction regi...
This paper presents analysis of detector solenoid effects on primary disrupted beam in the ILC 14 mr...
An interaction region with head-on collisions is considered as an alternative to the baseline ILC co...
The ILC Beam Delivery System (BDS) uses a variety of superconducting magnets to maximize luminosity ...
In this paper, we discuss optimization of the larger crossing angle Interaction Region of the Linear...
The betatron coupling introduced by the experimental solenoids in the LHC is small at injection and ...
Future linear colliders may require a nonzero crossing angle between the two beams at the interactio...
online : http://pac07.org/proceedings/PAPERS/THPMN005.PDFInternational audienceconsidered as an alte...
The International Linear Collider (ILC) is a proposal for 500 GeV center-of-mass electron-positron c...
La très haute luminosité visée par les futurs collisionneurs linéaires nécessite une très forte foca...
In this paper, we discuss the optics effects of the realistic detector solenoid field on beam size a...
In order to obtain the necessary luminosity with a reasonable amount of beam power, the Compact Line...
Strong focalisation of the beam is mandatory at the interaction point of the future linear collider ...
This paper presents calculations of detector solenoid effects on disrupted primary beam in the ILC 1...
The International Linear Collider (ILC) will be a pair of linear accelerators (LINACs) that accelera...
This paper presents a method for compensating the vertical orbit change through the interaction regi...
This paper presents analysis of detector solenoid effects on primary disrupted beam in the ILC 14 mr...
An interaction region with head-on collisions is considered as an alternative to the baseline ILC co...
The ILC Beam Delivery System (BDS) uses a variety of superconducting magnets to maximize luminosity ...
In this paper, we discuss optimization of the larger crossing angle Interaction Region of the Linear...
The betatron coupling introduced by the experimental solenoids in the LHC is small at injection and ...
Future linear colliders may require a nonzero crossing angle between the two beams at the interactio...
online : http://pac07.org/proceedings/PAPERS/THPMN005.PDFInternational audienceconsidered as an alte...
The International Linear Collider (ILC) is a proposal for 500 GeV center-of-mass electron-positron c...
La très haute luminosité visée par les futurs collisionneurs linéaires nécessite une très forte foca...