There is a growing interest in the development of high gradient ({ge} 1 GeV/m) accelerating structures. The need for high gradient acceleration based on current microwave technology requires the structures to be operated in the millimeter wavelength. Fabrication of accelerating structures at millimeter scale with sub-micron tolerances poses great challenges. The accelerating structures impose strict requirements on surface smoothness and finish to suppress field emission and multipactor effects. Various fabrication techniques based on conventional machining and micromachining have been evaluated and tested. These will be discussed and measurement results presented
One priority of the CLIC (Compact Linear Collider) accelerating-structure development program has be...
One priority of the CLIC (Compact Linear Collider) accelerating-structure development program has be...
This communication focuses on the technological developments aiming to show the viability of novel w...
High gradients in radio-frequency (RF) driven accelerators require short wavelengths that have the c...
There is a growing interest in the development of very high gradient ({ge} GeV/meter) accelerating s...
Planar accelerating millimeter-wave structures have been studied during the last few years at Argonn...
Accelerating structures made from parts which follow symmetry planes offer many potential advantages...
Planar accelerating millimeter-wave structures have been studied during the last few years at Argonn...
CLIC high gradient accelerating structures (AS) work-ing in X-band are made of copper ultra-high pre...
The CLIC structures are designed for operating at X-Band, $2 \pi /3$ traveling wave mode with a load...
Planar accelerating millimeter-wave structures have been studied during the last few years at Argonn...
Feasibility studies on the planar millimeter-wave cavity structures have been made. The structures c...
The fabrication tolerances of RF components are essential for CLIC X-band accelerating structures to...
Short copper standing wave (SW) structures operating at an X-band frequency have been recently desig...
The CLIC structures are designed for operating at XBand, 2π/3 traveling wave mode with a loaded 100 ...
One priority of the CLIC (Compact Linear Collider) accelerating-structure development program has be...
One priority of the CLIC (Compact Linear Collider) accelerating-structure development program has be...
This communication focuses on the technological developments aiming to show the viability of novel w...
High gradients in radio-frequency (RF) driven accelerators require short wavelengths that have the c...
There is a growing interest in the development of very high gradient ({ge} GeV/meter) accelerating s...
Planar accelerating millimeter-wave structures have been studied during the last few years at Argonn...
Accelerating structures made from parts which follow symmetry planes offer many potential advantages...
Planar accelerating millimeter-wave structures have been studied during the last few years at Argonn...
CLIC high gradient accelerating structures (AS) work-ing in X-band are made of copper ultra-high pre...
The CLIC structures are designed for operating at X-Band, $2 \pi /3$ traveling wave mode with a load...
Planar accelerating millimeter-wave structures have been studied during the last few years at Argonn...
Feasibility studies on the planar millimeter-wave cavity structures have been made. The structures c...
The fabrication tolerances of RF components are essential for CLIC X-band accelerating structures to...
Short copper standing wave (SW) structures operating at an X-band frequency have been recently desig...
The CLIC structures are designed for operating at XBand, 2π/3 traveling wave mode with a loaded 100 ...
One priority of the CLIC (Compact Linear Collider) accelerating-structure development program has be...
One priority of the CLIC (Compact Linear Collider) accelerating-structure development program has be...
This communication focuses on the technological developments aiming to show the viability of novel w...