Physics

X-rays: Beyond the Nobel Prize limit

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Laser physicsX-rayAtomic physics

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Researchers have demonstrated that irradiating certain atoms with laser light can generate laser pulses with extremely high frequencies in the X-ray range. This work builds upon record-breaking results achieved at TU Wien in the 1990s and relates to research recognized by the 2023 Nobel Prize in Physics. The technique represents a method for producing X-ray laser pulses through atomic interactions with conventional laser light.


X-ray laser technology has significant applications in materials science, medical imaging, and fundamental physics research. The ability to generate high-frequency X-ray pulses through laser irradiation could enable more compact and accessible X-ray sources for scientific and practical applications.


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When certain atoms are irradiated with laser light, they can produce a very different kind of laser light: laser pulses with extremely high frequencies in the X-ray range. These laser pulses, which helped achieve record-breaking results at TU Wien in the 1990s, were the subject of the 2023 Nobel Prize in Physics.

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