The Stanford Synchrotron Radiation Laboratory started operation as a parasitic light source in 1973, becoming a fully dedicated user facility in 1992. A project was approved in 1998 to upgrade the storage ring to a third generation source. In order to sustain higher current in a tightly reconfigured magnetic lattice, it became necessary to upgrade the rf system from the present 5-cell cavity to four units of single-cell cavities to be powered by one high-power or two low-power klystrons. We present an overview of the upgrade project to be completed by the year 2002
During 1987, SSRL achieved many significant advances and reached several major milestones utilizing ...
To achieve the goals in the TLS storage ring performance upgrade plan, the necessity of adding the t...
Superconducting radio frequency SRF technology holds the promise of low beam impedance, high grad...
A project to replace two existing room-temperature radio frequency (RF) cavities by one CESR-III 500...
The Synchrotron Radiation Research Center (SRRC) as a third generation light source facility began a...
SSRL, a division of the Stanford Linear Accelerator Center, is a national user facility which provid...
1986 was another year of major advances for SSRL as the ultimate capabilities of PEP as a synchrotro...
SSRL is a national facility supported primarily by the Department of Energy for the utilization of s...
The electron storage ring at the Synchrotron Radiation Research Center, as a third-generation light ...
The Stanford Synchrotron Radiation Lightsource (SSRL) at the SLAC National Accelerator Laboratory is...
The high power RF system for the PLS storage ring consists of four 60 kW klystron amplifiers feeding...
The existing NSLS X-ray Lithography Source (XLS Phase I) is being considered for a coherent synchrot...
The high power RF system for the PLS storage ring consists of four 60 kW klystron amplifiers feeding...
The hard work done by the synchrotron radiation community, in collaboration with all those using lar...
For SSRL operations, 1988 was a year of stark contrasts. The first extended PEP parasitic running si...
During 1987, SSRL achieved many significant advances and reached several major milestones utilizing ...
To achieve the goals in the TLS storage ring performance upgrade plan, the necessity of adding the t...
Superconducting radio frequency SRF technology holds the promise of low beam impedance, high grad...
A project to replace two existing room-temperature radio frequency (RF) cavities by one CESR-III 500...
The Synchrotron Radiation Research Center (SRRC) as a third generation light source facility began a...
SSRL, a division of the Stanford Linear Accelerator Center, is a national user facility which provid...
1986 was another year of major advances for SSRL as the ultimate capabilities of PEP as a synchrotro...
SSRL is a national facility supported primarily by the Department of Energy for the utilization of s...
The electron storage ring at the Synchrotron Radiation Research Center, as a third-generation light ...
The Stanford Synchrotron Radiation Lightsource (SSRL) at the SLAC National Accelerator Laboratory is...
The high power RF system for the PLS storage ring consists of four 60 kW klystron amplifiers feeding...
The existing NSLS X-ray Lithography Source (XLS Phase I) is being considered for a coherent synchrot...
The high power RF system for the PLS storage ring consists of four 60 kW klystron amplifiers feeding...
The hard work done by the synchrotron radiation community, in collaboration with all those using lar...
For SSRL operations, 1988 was a year of stark contrasts. The first extended PEP parasitic running si...
During 1987, SSRL achieved many significant advances and reached several major milestones utilizing ...
To achieve the goals in the TLS storage ring performance upgrade plan, the necessity of adding the t...
Superconducting radio frequency SRF technology holds the promise of low beam impedance, high grad...