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Imaging Magnetic and Electric Fields with an Electron Microscope A new high-speed detector for electron microscopes uses every transmitted electron to measure electric and magnetic fields

A metal spoon can bend in half without breaking because of defects in its crystalline structure.  By contrast, a metal spoon with atoms in a disordered structure—a metallic glass spoon—would break via a catastrophic brittle fracture.  Here we show that disordered packings of particles ranging in size from atoms, as in a metallic glass, to nanoparticles to micron-sized colloids to centimeter-sized granular particles, show universal behavior in their microscopic structure and dynamics and in their macroscopic mechanical response, even for systems with extremely different interactions between

Strong interactions at the interface between a crystalline film and substrate can impart new structure to thin films. Here, a germanium surface (purple atoms) squeezes a BaTiO3 thin film above, revealing a hidden phase not seen in the bulk. The hidden phase of BaTiO3 shows oxygen octahedra cages (shaded in aqua) alternating in size. By combining theory, synchrotron x-ray diffraction, and electron microscopy, a new materials design approach has uncovered hidden traits of a material that can be expressed through articulated forces at an interface.

The Northwestern Prison Education Program is an initiative to provide a high-quality liberal arts and STEM education to incarcerated students in Illinois in partnership with Oakton Community College and the Illinois Department of Corrections. Responding to the crisis of mass incarceration, NPEP fills a vital need by being the only degree-granting program in the State of Illinois with a full liberal arts curriculum including STEM courses for incarcerated students.

CDCM’s Research Experiences for Teachers (RET) program engages elementary school teachers in materials research at UT Austin during the summer and has created lasting impact over the past six years. The program aims to increase teacher efficacy in research practices and guide teachers in integrating what they learn into their instructional practice. The end goals are to enhance students’ engagement in science and increase students’ awareness of and interest in STEM fields.  

The Industrial Mentorship Program connects undergraduate students, graduate students and post-doctoral fellows to a PhD level mentor in industry. This program is designed to (i) expose participants to fundamental research as it relates to societal and economic development; (ii) enable them to broaden their networks; and (iii) facilitate a successful transition into the workforce. The Industrial Mentor program entered its sixth program cycle during 2023-2024 and since its inception, 147 students have participated as mentees in the program, with 30 of those from the CIMA PREM at Texas State University.

The University of Nebraska-Lincoln (UNL) leads a new $7 million research collaboration involving six universities to develop a new generation of electronic devices in partnership with an industry consortium.

Toyota Research Institute of North America, collaborating with MRSEC-supported scientists and facilities have developed a novel [LiCl]/[FeOCl] heterointerface composite material (LFH) that achieves high lithium-ion conductivity from two traditionally non-conductive materials. The unique core-shell structure facilitates interstitial lithium-ion diffusion.