Topic: LCLS-II | SLAC National Accelerator Laboratory

Feature

They used synthetic diamond crystals as mirrors to make X-ray pulses run laps inside a vacuum chamber, demonstrating a key process needed for future...

Two scientists in a control room full of computer monitors that allow them to adjust diamond mirrors in their CBXFEL experiment

Feature

The facility is now one step away from releasing an unprecedented stream of ultra-bright X-rays.

This is a graphic representation of electron bunches travelling through SLAC's linear accelerator.

news collection

An upgrade to SLAC’s renowned Linac Coherent Light Source will allow it to deliver X-ray laser beams that are 10,000 times brighter with pulses that arrive up to a million times per second.

News Release

After decades of effort, scientists have finally seen the process by which nature creates the oxygen we breathe using SLAC’s X-ray laser.

Feature

Once built, the system could produce fast X-ray pulses ten times more powerful than ever before.

illustration of an electron beam traveling through a niobium cavity – a key component of SLAC’s future LCLS-II X-ray laser.

Video

After more than a decade, LCLS was upgraded to generate even more powerful X-ray laser beams. With the LCLS-II upgrade, LCLS is around 10,000...

The creation of the world's brightest X-ray

Feature

A machine learning algorithm automatically extracts information to speed up – and extend – the study of materials with X-ray pulse pairs.

A pattern of red and yellow dots surrounded by a ring of blue dots on a black background.

Feature

The Stanford Board of Trustees held its first meeting of the 2022-23 academic year Oct. 17-18. Trustees toured the SLAC National Accelerator Laboratory and...

Illustration

When light drives electron transfer in a molecular complex, the surrounding solvent molecules also rapidly move.

Illustration

Scientists use a series of magnets to transform an electron bunch into a narrow current spike which then produces a very intense attosecond X-ray...

Photograph

The first of 37 cryomodules for LCLS-II is moved off of its truck after being shipped from Fermilab. All the cryomodules were delivered...

Photograph

Drone photo of the team working on LCLS-II cryoplant.

They used synthetic diamond crystals as mirrors to make X-ray pulses run laps inside a vacuum chamber, demonstrating a key process needed for future generations of performance-enhanced X-ray lasers.

The facility is now one step away from releasing an unprecedented stream of ultra-bright X-rays.

An upgrade to SLAC’s renowned Linac Coherent Light Source will allow it to deliver X-ray laser beams that are 10,000 times brighter with pulses that arrive up to a million times per second.

After decades of effort, scientists have finally seen the process by which nature creates the oxygen we breathe using SLAC’s X-ray laser.

Once built, the system could produce fast X-ray pulses ten times more powerful than ever before.

After more than a decade, LCLS was upgraded to generate even more powerful X-ray laser beams. With the LCLS-II upgrade, LCLS is around 10,000 times brighter and fires about 8,000 times faster. It generates up to one million pulses per...

A machine learning algorithm automatically extracts information to speed up – and extend – the study of materials with X-ray pulse pairs.

The Stanford Board of Trustees held its first meeting of the 2022-23 academic year Oct. 17-18. Trustees toured the SLAC National Accelerator Laboratory and met the new dean of the Doerr School of Sustainability, among other matters.

When light drives electron transfer in a molecular complex, the surrounding solvent molecules also rapidly move.

Scientists use a series of magnets to transform an electron bunch into a narrow current spike which then produces a very intense attosecond X-ray flash.

The first of 37 cryomodules for LCLS-II is moved off of its truck after being shipped from Fermilab. All the cryomodules were delivered via truck.

Drone photo of the team working on LCLS-II cryoplant.

LCLS-II

SLAC researchers take important step toward developing cavity-based X-ray laser technology

Electrons now moving through the superconducting accelerator that will power SLAC’s X-ray laser

LCLS-II

Researchers capture elusive missing step in the final act of photosynthesis

Researchers adapt a Nobel Prize-winning method to design new, ultra-powerful X-ray systems

The creation of the world's brightest X-ray laser

Artificial intelligence deciphers detector "clouds" to accelerate materials research

‘Real-world impact’: Stanford Board of Trustees learns how SLAC can change the future

Electron transfer in a molecular complex

XLEAP illustration

Cryomodule lifted from truck

Cryoplant team

SLAC researchers take important step toward developing cavity-based X-ray laser technology

Electrons now moving through the superconducting accelerator that will power SLAC’s X-ray laser

LCLS-II

Researchers capture elusive missing step in the final act of photosynthesis

Researchers adapt a Nobel Prize-winning method to design new, ultra-powerful X-ray systems

The creation of the world's brightest X-ray laser

Artificial intelligence deciphers detector "clouds" to accelerate materials research

‘Real-world impact’: Stanford Board of Trustees learns how SLAC can change the future

Electron transfer in a molecular complex

XLEAP illustration

Cryomodule lifted from truck

Cryoplant team