Researchers have developed a fast, systematic way to get the best performance out of x-ray mirrors by optimizing their positioning in beamlines. The system does in a day what used to take many days, by combining precise surface metrology with computer analysis of the optimal alignment of a mirror in a beamline. Read more »
A New Twist in Soft X-Ray Beams
Visible-light beams with orbital angular momentum (OAM) have been used in applications ranging from communications and imaging to particle manipulation. Now, researchers have generated high-quality OAM beams in the soft x-ray regime, with intriguing possibilities for future use at high-coherence, diffraction-limited light sources. Read more »
Expanding the Infrared Nanospectroscopy Window
An innovative infrared-light probe with nanoscale spatial resolution has been expanded to cover previously inaccessible far-infrared wavelengths. The ability to investigate heterogeneous materials at nanometer scales and far-infrared energies will benefit a wide range of fields, from condensed matter physics to biology. Read more »
In Situ X-Ray Scattering Helps Optimize Printed Solar Cells
Printable plastic solar cells are a potential source of inexpensive renewable energy, but the transition from lab to factory results in decreased efficiency. Now, for the first time, a miniature solar-cell printer installed in a beamline allows researchers to use x-ray diffraction and scattering to figure out why. Read more »
New ALS Technique Gives Nanoscale Views of Complex Systems
A new broadband imaging technique looks inside the mesoscale realm with unprecedented sensitivity and range. Synchrotron Infrared Nano-Spectroscopy (SINS) will enable in-depth study of complex molecular systems, including liquid batteries, living cells, novel electronic materials, and stardust.
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