We report the progress on high gradient R&D of ILC cavities at Jefferson Lab (JLab) since the Beijing workshop. Routine 9-cell cavity electropolishing (EP) processing and RF testing has been enhanced with added surface mapping and T-mapping instrumentations. 12 new 9-cell cavities (10 of them are baseline fine-grain TESLA-shape cavities: 5 built by ACCEL/Research Instruments, 4 by AES and 1 by JLab; 2 of them are alternative cavities: 1 fine-grain ICHIRO-shape cavity built by KEK/Japan industry and 1 large-grain TESLA-shape cavity built by JLab) are EP processed and tested. 76 EP cycles are accumulated, corresponding to more than 200 hours of active EP time. Field emission (FE) and quench behaviors of electropolished 9-cell cavities are stu...
Results are presented on an alternative cavity to the ILC baseline design of TESLA-style SRF main ac...
In the two years since the 7th SRF workshop, a variety of cavity tests have been carried out with th...
The aim of the program is to transfer our successes in single cell high gradient R&D to multi-cell c...
We report on the recent progress at Jefferson Lab in developing ultra high gradient and high Q{sub 0...
As reported previously at the Berlin workshop, applying the JLab standard ILC electropolishing (EP) ...
As part of the coordinated U.S. effort to build up SRF in-frastructure for the ILC, the Cornell SRF ...
Superconducting Radio-Frequency (SRF) cavities are a promising technology for the next generation of...
One of the major goals of ILC SRF cavity R&D is to develop industrial capabilities of cavity manufac...
Several of the 9-cell ILC cavities processed at Jlab within ongoing ILC R&D program have shown i...
We present the status and recent results from the development of new SRF cavities for the CEBAF 12 G...
The electropolishing process (EP) is considered an essential step in the processing of high gradient...
High gradient of sc cavities was much improved in the past one decade. Today the accelerating field ...
High gradient of sc cavities was much improved in the past one decade. Today the accelerating field ...
The CEBAF recirculating CW electron linear accelerator at Jefferson Lab is presently undergoing a ma...
Reproducible operation at high performances of superconducting cavities is required for linear accel...
Results are presented on an alternative cavity to the ILC baseline design of TESLA-style SRF main ac...
In the two years since the 7th SRF workshop, a variety of cavity tests have been carried out with th...
The aim of the program is to transfer our successes in single cell high gradient R&D to multi-cell c...
We report on the recent progress at Jefferson Lab in developing ultra high gradient and high Q{sub 0...
As reported previously at the Berlin workshop, applying the JLab standard ILC electropolishing (EP) ...
As part of the coordinated U.S. effort to build up SRF in-frastructure for the ILC, the Cornell SRF ...
Superconducting Radio-Frequency (SRF) cavities are a promising technology for the next generation of...
One of the major goals of ILC SRF cavity R&D is to develop industrial capabilities of cavity manufac...
Several of the 9-cell ILC cavities processed at Jlab within ongoing ILC R&D program have shown i...
We present the status and recent results from the development of new SRF cavities for the CEBAF 12 G...
The electropolishing process (EP) is considered an essential step in the processing of high gradient...
High gradient of sc cavities was much improved in the past one decade. Today the accelerating field ...
High gradient of sc cavities was much improved in the past one decade. Today the accelerating field ...
The CEBAF recirculating CW electron linear accelerator at Jefferson Lab is presently undergoing a ma...
Reproducible operation at high performances of superconducting cavities is required for linear accel...
Results are presented on an alternative cavity to the ILC baseline design of TESLA-style SRF main ac...
In the two years since the 7th SRF workshop, a variety of cavity tests have been carried out with th...
The aim of the program is to transfer our successes in single cell high gradient R&D to multi-cell c...