Linear colliders are an attractive platform to explore high-precision physics of newly discovered particles. The recent significant progress in advanced accelerator technologies has motivated their applications to colliders which has been discussed in the {\sc alegro} workshop. In this paper we discuss one promising scheme, collinear wakefield acceleration. We especially discuss available drive and witness beam sources based on L and S-band radiofrequency technology, and also summarize available and forthcoming longitudinal shaping techniques to improve the overall acceleration efficiency via the transformer ratio
We demonstrate the first single shot measurement of a multi-period, loaded PWFA wakefield, used to c...
The Compact Linear Collider (CLIC) study of an e+/e- linear collider in the TeV energy range is base...
Strategies to mitigate the increase of witness emittance and energy spread in beam driven plasma wak...
The transformer ratio, characterizing the ratio of maximum accelerating field behind the drive bunch...
One approach to future high energy particle accelerators is based on the wakefield principle: a lead...
We present a practical method for achieving a transformer ratio (R) greater than 2 with any collinea...
We present a practical method for achieving a transformer ratio (R) greater than 2 with any collinea...
Collinear high-gradient ${\cal O} (GV/m)$ beam-driven wakefield methods for charged-particle acceler...
The next generation of linear collider after the SLC (Stan-ford Linear Collider) will probably have ...
Plasma-based acceleration has already proved the ability to reach ultra-high accelerating gradients....
The potential for high average gradients makes plasma wakefield acceleration (PWFA) an attracting op...
In a linear collider, low frequency favours efficiency of power transfer to the beam and high freque...
The transformer ratio is defined as the ratio of the maximum energy gain of the witness bunch to the...
Plasma Wake-Field Acceleration (PWFA) has demonstrated acceleration gradients above 50 GeV/m. Simula...
Beam-driven plasma-wakefield acceleration is an acceleration scheme promising accelerating fields of...
We demonstrate the first single shot measurement of a multi-period, loaded PWFA wakefield, used to c...
The Compact Linear Collider (CLIC) study of an e+/e- linear collider in the TeV energy range is base...
Strategies to mitigate the increase of witness emittance and energy spread in beam driven plasma wak...
The transformer ratio, characterizing the ratio of maximum accelerating field behind the drive bunch...
One approach to future high energy particle accelerators is based on the wakefield principle: a lead...
We present a practical method for achieving a transformer ratio (R) greater than 2 with any collinea...
We present a practical method for achieving a transformer ratio (R) greater than 2 with any collinea...
Collinear high-gradient ${\cal O} (GV/m)$ beam-driven wakefield methods for charged-particle acceler...
The next generation of linear collider after the SLC (Stan-ford Linear Collider) will probably have ...
Plasma-based acceleration has already proved the ability to reach ultra-high accelerating gradients....
The potential for high average gradients makes plasma wakefield acceleration (PWFA) an attracting op...
In a linear collider, low frequency favours efficiency of power transfer to the beam and high freque...
The transformer ratio is defined as the ratio of the maximum energy gain of the witness bunch to the...
Plasma Wake-Field Acceleration (PWFA) has demonstrated acceleration gradients above 50 GeV/m. Simula...
Beam-driven plasma-wakefield acceleration is an acceleration scheme promising accelerating fields of...
We demonstrate the first single shot measurement of a multi-period, loaded PWFA wakefield, used to c...
The Compact Linear Collider (CLIC) study of an e+/e- linear collider in the TeV energy range is base...
Strategies to mitigate the increase of witness emittance and energy spread in beam driven plasma wak...