Axons

Taking inspiration from nature, researchers discovered a class of materials that behave like axons by spontaneously strengthening electrical pulses that travel along transmission lines.

graphic illustration of hydrogen molecules on a blue background

Researchers zero in on the underlying mechanism that causes alloys to crack when exposed to hydrogen-rich environments.

close-up of a 3D printer print head and printing platform

A developing new materials discovery framework creates a pathway to printable parts for turbine engines.

An illustration showing ants creating a bridge with their bodies with a green background.

Inspired by fire ant survival behavior, Texas A&M researchers developed a method that allows synthetic materials to assemble into a structure and disassemble autonomously in response to an environmental change.

A silhouette of a human head with an illuminated brain and electrical waves with points of light through it.

A team of researchers is developing a less invasive, longer-lasting implantation technique with shape-changing capabilities designed for patients with neurological disorders.

Evolution of the microstructure of a pressure-tunable thermal energy storage material (a plastic crystal) upon heating from 25 to 50 C illustrating the formation of rotationally disordered domains along grain boundaries occurring between 41.8 to 42.2 C.

The Defense University Research Instrumentation Program will support the acquisition of a high-sensitivity multi-modal calorimeter for advanced research and education on tunable energy storage materials.

Two men stand on a staircase.

Dr. Abdoulaye Djire, graduate student David Kumar Yesudoss and Dr. Miladin Radovic developed a cost-effective catalyst that could enable hydrogen production from renewable sources.

A worn piece of silver metal with many cracks and surface imperfections as seen on a microscopic scale from a scanning electron microscope. A large vertical crack splits the left third of the image from the rest, and multiple raised and lowered textures fill the spaces between many smaller cracks throughout.

A recent surprise observation of metal healing itself during fracture experiments at Sandia National Laboratories has provided the first experimental evidence of a theory proposed a decade ago by Texas A&M University researcher Dr. Michael Demkowicz.

Dr. Qing Tu interacting with a piece of lab equipment

Researchers investigated the fatigue behavior of 2D hybrid materials, opening doors to their widespread use in real-world applications.

Nine circular tubes with different patterns.

A multidisciplinary team of Texas A&M University researchers from three departments are working to advance the performance of thermal energy storage systems.