Accelerator Engineering
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Researchers Hit Milestone in Accelerating Particles with Plasma
Scientists have demonstrated that a promising technique for accelerating electrons on waves of hot plasma is efficient enough to power a new generation of shorter, more economical accelerators.
SLAC Scientists Win Prizes for X-ray Laser Work
Three scientists at SLAC National Accelerator Laboratory have received international prizes for their achievements in free-electron laser science.
SLAC Partners with Small Businesses to Put Technology to Good Use
Researchers at SLAC collaborate with small businesses to develop technology so it can benefit the world at large.
A New Way to Create Compact Light Sources
SLAC scientists have found a new way to produce bright pulses of light from accelerated electrons that could shrink "light source" technology used around the world since the 1970s to examine details of atoms and chemical reactions
A New Way to Tune X-ray Laser Pulses
A new system at SLAC National Accelerator Laboratory's X-ray laser narrows a rainbow spectrum of X-ray colors to a more intense band of light, creating a much more powerful way to view fine details in samples at the scale of atoms and molecules.
SLAC Partners with Industry to Produce Powerful Klystrons for Research
A cooperative agreement with Palo-Alto based CPI opens the door to routine commercial manufacturing of these powerful vacuum tube devices, which convert electron beams into microwaves that are used to accelerate subatomic particles.
Researchers Demonstrate 'Accelerator on a Chip'
In an advance that could dramatically shrink particle accelerators for science and medicine, researchers used a laser to accelerate electrons at a rate 10 times higher than conventional technology in a nanostructured glass chip smaller than a grain of rice.
Shedding Light
In 1971, physicist Burton Richter of Stanford Linear Accelerator Center was building a new type of particle collider called a storage ring. The lab’s two-mile-long linear accelerator—housed in what was then the longest building in the world—would shoot electrons and their antimatter twins, called positrons, into the 80-meter-diameter Stanford Positron Electron Accelerating Ring, and SPEAR would set the beams of particles on a collision course. Richter and his colleagues stood by to examine the debris to see what discoveries came out.
