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Scientists Transform Linac Coherent Light Source into Precise Tool

Scientists of the U.S. Department of Energy’s (DOE’s) SLAC National Accelerator Laboratory have fine-tuned the Linac Coherent Light Source (LCLS) into a more accurate instrument to examine the nanoworld, using a thin diamond fragment.

The advancements emit laser pulses of higher intensity in much narrower bands of x-ray wavelengths, allowing performance of experiments not possible so far. Through the self-seeding process, the diamond refines the x-ray to one color, which is later augmented. The advancement will provide researchers better control for examining and managing matter at the atomic level and will yield a clearer picture of materials, chemical reactions and molecules.

Self-seeding has the capability to generate x-ray pulses with more intensity than that of today. The heightened intensity will help in examining complicated material more closely and finding out more about unique substances like high-temperature superconductors or complex electronic conditions like those in topological insulators.

LCLS pushes electron bunches to almost light’s speed and puts them on a zigzag path with multiple magnets. This coerces the electrons to give out x-ray laser pulses brighter than before and quick enough to investigate samples in a fraction of a second. Without self-seeding, these x-ray laser pulses contain various wavelengths (or colors) in a variable pattern, which cannot all be used in experiments.

Until recently, generating a narrower wavelength band LCLS meant deducting unnecessary wavelengths, which caused reduced intensity. To generate an accurate x-ray wavelength band and make LCLS even more “laser-like”, investigators fixed a diamond crystal fragment halfway down the 130-m path of magnets where the x-rays are generated.

LCLS has already started accepting proposals to use self-seeding in future experiments. Initial trials of the LCLS self-seeding setup have been successful. People from many other x-ray laser facilities came to help and to learn to implement it in their own locations.

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G.P. Thomas

Written by

G.P. Thomas

Gary graduated from the University of Manchester with a first-class honours degree in Geochemistry and a Masters in Earth Sciences. After working in the Australian mining industry, Gary decided to hang up his geology boots and turn his hand to writing. When he isn't developing topical and informative content, Gary can usually be found playing his beloved guitar, or watching Aston Villa FC snatch defeat from the jaws of victory.

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