News

Synchrotron measurements of a titanium alloy reveal anisotropic coefficients of thermal expansion that would not be able to be seen with bulk measurements.

"The award allows me to plan long-term, to take risks in experiment design and execution, and to carefully integrate my teaching and outreach with my research."  Ryan Hurley, Assistant Professor at Johns Hopkins Whiting School of Engineering and Fellow of the Hopkins Extreme Materials Institute, is a recipient of the NSF Early CAREER Award, which recognizes early-stage faculty who integrate education with their promising research.  

Research on the synthesis of CuFeS2, an exciting semiconductor, outlines a method to verify its phase purity and investigate its properties.

Mapping of Structure in Real Space, Reciprocal Space, and Time Using High-Energy X-rays This article was originally published in Synchrotron Radiation News.

New research from a large team from 5 Universities and 2 National Labs reports on a new family of iridium halide materials that provide the best-yet realization of the ideal quantum limit for spin-orbit coupled magnetic moments. These Jeff=½ magnets are promising systems to engineer new kinds of superconductors and realize new kinds of magnetic interactions.

From the gut microbiome to the depths of the ocean, life has evolved to thrive in the absence of oxygen. In fact, it is not hyperbole to say that life as we know it would not exist without the oxygen sensitive metalloenzymes that we all rely on.

Pressure is a fundamental thermodynamic parameter controlling the behavior of biological macromolecules. In many cases pressure alters molecular shape and therefore also the biological function. Small angle X-ray scattering (SAXS) is a widely used method to determine the shape and size of macromolecules, but typical sample cells for SAXS experiments are unsuitable for use at high pressures. 

In situ X-ray radiography at CHESS, in conjunction with ex situ X-ray computed tomography (XCT), was employed to study the origins of fiber-induced clogging during 3D printing of fiber-filled polymer inks. This work reveals several promising strategies to mitigate nozzle clogging, which will allow researchers to reliably print materials with higher fiber contents and mechanical properties that rival conventionally processed composites.