A prototype 11.994 GHz, traveling-wave accelerating structure for the Compact Linear Collider has been built, using the novel technique of assembling the structure from milled halves. The use of milled halves has many advantages when compared to a structure made from individual disks. These include the potential for a reduction in cost, because there are fewer parts, as well as a greater freedom in choice of joining technology because there are no rf currents across the halves’ joint. Here we present the rf design and fabrication of the prototype structure, followed by the results of the high-power test and post-test surface analysis. During high-power testing the structure reached an unloaded gradient of 100 MV/m at a rf breakdown rate of...
Milling on two longitudinally split halves is one method to manufacture accelerating structures. Thi...
This paper explores the physics of vacuum rf breakdowns in subterahertz high-gradient traveling-wave...
One priority of the CLIC (Compact Linear Collider) accelerating-structure development program has be...
A prototype 11.994 GHz, traveling-wave accelerating structure for the Compact Linear Collider has be...
A prototype 11.994 GHz, traveling-wave accelerating structure for the Compact Linear Collider has be...
This communication focuses on the technological developments aiming to show the viability of novel w...
Accelerating structures made from parts which follow symmetry planes offer many potential advantages...
The paper presents1 the design of a planar R-Band accelerating structure and results of a first high...
A Compact Linear Collider prototype traveling-wave accelerator structure fabricated at Tsinghua Univ...
The development of high gradient accelerating structures is one of the leading activities of the acc...
Accelerating structures are usually manufactured by precision turning of individual cells combined w...
Linacs for high-energy physics, as well as for industry and medicine, require accelerating structure...
We present the design, construction and high-power test of an X-band radio-frequency accelerating st...
The CLIC study is investigating a number of different materials at different frequencies in order to...
Milling on two longitudinally split halves is one method to manufacture accelerating structures. Thi...
Milling on two longitudinally split halves is one method to manufacture accelerating structures. Thi...
This paper explores the physics of vacuum rf breakdowns in subterahertz high-gradient traveling-wave...
One priority of the CLIC (Compact Linear Collider) accelerating-structure development program has be...
A prototype 11.994 GHz, traveling-wave accelerating structure for the Compact Linear Collider has be...
A prototype 11.994 GHz, traveling-wave accelerating structure for the Compact Linear Collider has be...
This communication focuses on the technological developments aiming to show the viability of novel w...
Accelerating structures made from parts which follow symmetry planes offer many potential advantages...
The paper presents1 the design of a planar R-Band accelerating structure and results of a first high...
A Compact Linear Collider prototype traveling-wave accelerator structure fabricated at Tsinghua Univ...
The development of high gradient accelerating structures is one of the leading activities of the acc...
Accelerating structures are usually manufactured by precision turning of individual cells combined w...
Linacs for high-energy physics, as well as for industry and medicine, require accelerating structure...
We present the design, construction and high-power test of an X-band radio-frequency accelerating st...
The CLIC study is investigating a number of different materials at different frequencies in order to...
Milling on two longitudinally split halves is one method to manufacture accelerating structures. Thi...
Milling on two longitudinally split halves is one method to manufacture accelerating structures. Thi...
This paper explores the physics of vacuum rf breakdowns in subterahertz high-gradient traveling-wave...
One priority of the CLIC (Compact Linear Collider) accelerating-structure development program has be...