A new sensor developed by Duke University and Stanford University researchers provides a real-time, eagle-eye view of neural activity in mammalian brains. The technique watches the brain’s neurons with a temporal resolution of about 0.2 milliseconds.

Researchers in the Cockrell School of Engineering at The University of Texas at Austin have developed a self-healing gel that repairs and connects electronic circuits, creating opportunities to advance the creation of flexible electronics, biosensors, and batteries.

By using plasmons to “wiggle” a free electron in a sheet of graphene, researchers at the Massachusetts Institute of Technology (MIT) have developed a new method for generating X-rays. The discovered phenomenon could lead to more compact, tunable X-ray devices made of graphene.

The FDA’s Center for Devices and Radiological Health (CDRH) announced the 2015 Experiential Learning Program (ELP) General Training Program, which is intended to educate CDRH staff regarding the policies, laboratory practices, and challenges faced in broader disciplines that impact the medical...

Tufts University biomedical engineers are using low-energy, ultrafast laser technology to make high-resolution, 3D structures in silk protein hydrogels. The laser-based micropatterning represents a new approach to customized engineering of tissue and biomedical implants.

The ability to integrate disparate materials and properties within printed objects is the next frontier in 3D printing. Harvard University researchers have designed new multimaterial printheads that mix and print concentrated viscoelastic inks, enabling simultaneous control of composition and...

Children with under-formed or missing ears can undergo surgeries to fashion a new ear from rib cartilage. Aspiring surgeons, however, lack lifelike practice models. A University of Washington otolaryngology resident and bioengineering student 3D-printed a low-cost pediatric rib cartilage model that more closely...

Most materials swell when they warm, and shrink when they cool. A University of Connecticut physicist, however, has been investigating a substance that responds in reverse. Scandium trifluoride, a material with negative thermal expansion, may be used to create more durable electronics.

Researchers at The University of Alabama created a material that manipulates and reduces the speed of light in a new, more effective way. The resulting "slow light" will lead to the development of optical buffers and delay lines used in next-generation sensors.

Engineers at the University of Texas at Arlington Research Institute (Fort Worth, TX) and The University of Washington (Seattle, WA) have developed a healing glove that delivers needed medicine to an injured hand. The device, known as the Bioengineered Smart-Glove for Regenerative Healing of...