The CLIC multibunch accelerating structure, called the TDS (Tapered Damped Structure), relies on heavy damping of higher-order modes. Each cell of the structure is damped by its own set of four individually-terminated waveguides. A compact, low-cost and large-bandwidth terminating load with a reflection coefficient below 0.05 has been developed for this application. The load consists of a silicon carbide pyramid centered in a tapered waveguide. The design process, including the technique used to measure complex permittivity, is described. Measurements made on scaled prototypes are presented
The main effects which limit accelerating gradient in CLIC (Compact Linear Collider) main linac acce...
The rf design of an accelerating structure for the CLIC main linac is presented. The 12 GHz structur...
Electromagnetic (EM) characterization of materials up to high frequencies is a major requirement for...
This paper outlines the RF design of the CLIC (Compact Linear Collider) 30 GHz main linac accelerati...
Studies of waveguide damped 30 GHz accelerating structures for multibunching in CLIC are described. ...
The linac of the European project Extreme Light Infrastructure-Nuclear Physics (ELI-NP) foresees the...
For the CLIC two-beam scheme, a high-current, long-pulse drive beam is required for RF power generat...
Studies of waveguide damped 30 GHz accelerating structures for multibunching in CLIC are described. ...
We report on suppression of long-range wakefields in CLIC accelerating structures. Strong detuning a...
The baseline design of the CLIC accelerating structure foresees a moderate detuning and heavy dampin...
Three versions of the CLIC Transfer Structure (CTS) have been studied by means of simulations using ...
In the so-called "Two-Beam Acceleration Scheme" the energy of a drive beam is converted to rf power ...
The Compact Linear Collider (CLIC) is a 3 TeV eÅe¡ machine, currently under design at CERN, that tar...
The baseline design of CLIC (Compact Linear Collider) uses X-band accelerating structures for its ma...
A new 30 GHz multibunch accelerating structure incorporating both damping and detuning has been desi...
The main effects which limit accelerating gradient in CLIC (Compact Linear Collider) main linac acce...
The rf design of an accelerating structure for the CLIC main linac is presented. The 12 GHz structur...
Electromagnetic (EM) characterization of materials up to high frequencies is a major requirement for...
This paper outlines the RF design of the CLIC (Compact Linear Collider) 30 GHz main linac accelerati...
Studies of waveguide damped 30 GHz accelerating structures for multibunching in CLIC are described. ...
The linac of the European project Extreme Light Infrastructure-Nuclear Physics (ELI-NP) foresees the...
For the CLIC two-beam scheme, a high-current, long-pulse drive beam is required for RF power generat...
Studies of waveguide damped 30 GHz accelerating structures for multibunching in CLIC are described. ...
We report on suppression of long-range wakefields in CLIC accelerating structures. Strong detuning a...
The baseline design of the CLIC accelerating structure foresees a moderate detuning and heavy dampin...
Three versions of the CLIC Transfer Structure (CTS) have been studied by means of simulations using ...
In the so-called "Two-Beam Acceleration Scheme" the energy of a drive beam is converted to rf power ...
The Compact Linear Collider (CLIC) is a 3 TeV eÅe¡ machine, currently under design at CERN, that tar...
The baseline design of CLIC (Compact Linear Collider) uses X-band accelerating structures for its ma...
A new 30 GHz multibunch accelerating structure incorporating both damping and detuning has been desi...
The main effects which limit accelerating gradient in CLIC (Compact Linear Collider) main linac acce...
The rf design of an accelerating structure for the CLIC main linac is presented. The 12 GHz structur...
Electromagnetic (EM) characterization of materials up to high frequencies is a major requirement for...