Topic: LCLS-II | SLAC National Accelerator Laboratory

News 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.

News 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.

News 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

A SLAC-led team has invented a method, called XLEAP, that generates powerful low-energy X-ray laser pulses that are only 280 attoseconds, or billionths of...

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

Dominique White takes a look at the last cryomodule for LCLS-II delivered from Fermi National Accelerator Laboratory.

Video

Aerial view of SLAC’s campus with the LINAC in the foreground leading into the campus. The interstate 280 passes over the LINAC. Stanford...

Video

SLAC’s research yard in the foreground, with the LINAC stretching 2 miles to the west, and SLAC’s campus on the right.

Illustration

The ultra-bright X-ray laser pulses of the Linac Coherent Light Source at SLAC National Accelerator Laboratory can be used to strip electrons away from...

Video

LCLS-II’s Eric Fauve explains how the team cools the accelerator to 2 kelvins.

Cooling SLAC's linear accelerator to 2 kelvins

News Feature

En route to record-breaking X-rays, SLAC’s Cryogenic team built a helium-refrigeration plant that lowers the LCLS-II accelerator to superconducting temperatures.

Images of frost and a thermometer superimposed over an aerial view of an accelerator building.

News Feature

An extension of the Stanford Research Computing Facility will host several data centers to handle the unprecedented data streams that will be produced by...

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

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.

A SLAC-led team has invented a method, called XLEAP, that generates powerful low-energy X-ray laser pulses that are only 280 attoseconds, or billionths of a billionth of a second, long and that can reveal for the first time the fastest...

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.

Dominique White takes a look at the last cryomodule for LCLS-II delivered from Fermi National Accelerator Laboratory.

Aerial view of SLAC’s campus with the LINAC in the foreground leading into the campus. The interstate 280 passes over the LINAC. Stanford campus and Hoover tower can be seen in the distance.

SLAC’s research yard in the foreground, with the LINAC stretching 2 miles to the west, and SLAC’s campus on the right.

The ultra-bright X-ray laser pulses of the Linac Coherent Light Source at SLAC National Accelerator Laboratory can be used to strip electrons away from atoms, creating ions with strong charges. The ability to interact with atoms is critical for making...

LCLS-II’s Eric Fauve explains how the team cools the accelerator to 2 kelvins.

En route to record-breaking X-rays, SLAC’s Cryogenic team built a helium-refrigeration plant that lowers the LCLS-II accelerator to superconducting temperatures.

An extension of the Stanford Research Computing Facility will host several data centers to handle the unprecedented data streams that will be produced by a new generation of scientific projects.

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Charging ahead: batteries of the future

LCLS-II

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

Artificial intelligence deciphers detector "clouds" to accelerate materials research

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

XLEAP illustration

Cryomodule lifted from truck

Dominique White inspects a cryomodule delivered

SLAC full campus

SLAC’s research yard and LINAC

“Supercharging” atoms with X-ray laser

Getting LCLS-II to 2 kelvins

Helium’s chilling journey to cool a particle accelerator

SLAC expands and centralizes computing infrastructure to prepare for data challenges of the future

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

Artificial intelligence deciphers detector "clouds" to accelerate materials research

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

XLEAP illustration

Cryomodule lifted from truck

Dominique White inspects a cryomodule delivered

SLAC full campus

SLAC’s research yard and LINAC

“Supercharging” atoms with X-ray laser

Getting LCLS-II to 2 kelvins

Helium’s chilling journey to cool a particle accelerator

SLAC expands and centralizes computing infrastructure to prepare for data challenges of the future