The Compact Linear Collider (CLIC) study at CERN proposes a linear collider with nanometer-size colliding beams at an energy of 3 TeV c.m. ("colliding high energy nanobeams"). The transport, demagnification and collision of these nanobeams imposes magnet vibration tolerances that range from 0.2 nm to a few nanometers. This is well below the floor vibration usually observed. A test stand for magnet stability was set-up at CERN in the immediate neighborhood of roads, operating accelerators, workshops, and regular office space. It was equipped with modern stabilization equipment. The experimental setup and first preliminary results are presented. (10 refs)
To reach the design luminosity of CLIC, the movements of the quadrupoles should be limited to the na...
To reach the required luminosity at the CLIC interaction point, about 2000 quadrupoles along each li...
To reach a sufficient luminosity, the transverse beam sizes and emittances in future linear particle...
The Compact LInear Collider (CLIC) study at CERN proposes a linear collider with nanometer-size coll...
The Compact LInear Collider (CLIC) study at the European Organization for Nuclear Research (CERN) is...
The Compact Linear Collider (CLIC) aims at colliding e^+e^- beams at 1:5 TeV with effective transver...
The nanometer beam size at the CLIC interaction point imposes magnet vibration tolerances that range...
Original publication available at http://www.jacow.org/International audienceTo reach the design lum...
The nanometer beam size at the CLIC interaction point imposes magnet vibration tolerances that range...
Mechanical stability to the nanometre and below is required for the Compact Linear Collider (CLIC) q...
CLIC is one of the current projects of high energy linear colliders. Vertical beam sizes of 1nm at t...
In the Compact LInear Collider (CLIC) currently under study, electrons and positrons will be acceler...
Original publication available at http://www.jacow.org/International audienceThe demanding nanometre...
The present parameters of the CLIC study require the collision of small emittance beams with a verti...
The demanding nanometre transverse beam sizes and emittances in future linear accelerators result in...
To reach the design luminosity of CLIC, the movements of the quadrupoles should be limited to the na...
To reach the required luminosity at the CLIC interaction point, about 2000 quadrupoles along each li...
To reach a sufficient luminosity, the transverse beam sizes and emittances in future linear particle...
The Compact LInear Collider (CLIC) study at CERN proposes a linear collider with nanometer-size coll...
The Compact LInear Collider (CLIC) study at the European Organization for Nuclear Research (CERN) is...
The Compact Linear Collider (CLIC) aims at colliding e^+e^- beams at 1:5 TeV with effective transver...
The nanometer beam size at the CLIC interaction point imposes magnet vibration tolerances that range...
Original publication available at http://www.jacow.org/International audienceTo reach the design lum...
The nanometer beam size at the CLIC interaction point imposes magnet vibration tolerances that range...
Mechanical stability to the nanometre and below is required for the Compact Linear Collider (CLIC) q...
CLIC is one of the current projects of high energy linear colliders. Vertical beam sizes of 1nm at t...
In the Compact LInear Collider (CLIC) currently under study, electrons and positrons will be acceler...
Original publication available at http://www.jacow.org/International audienceThe demanding nanometre...
The present parameters of the CLIC study require the collision of small emittance beams with a verti...
The demanding nanometre transverse beam sizes and emittances in future linear accelerators result in...
To reach the design luminosity of CLIC, the movements of the quadrupoles should be limited to the na...
To reach the required luminosity at the CLIC interaction point, about 2000 quadrupoles along each li...
To reach a sufficient luminosity, the transverse beam sizes and emittances in future linear particle...