Coal can cause serious health issues when burned as a fuel. But when used as a source of graphene quantum dots, it could help treat traumatic injuries, as Rice University researchers and their colleagues show in new research.
Read More
Researchers at the University of Central Florida used cerium oxide nanoparticles to create the first-ever rapid detector of dopamine. Such a device could improve point-of-care diagnostics for use in low-resource settings.
Read More
Researchers developed a multifunctional bioactive glass scaffold that can simultaneously prevent infection, stimulate bone repair, and prompt the body to heal supportive tissues—an intriguing possible all-in-one solution to heal diseased bone.
Read More
Researchers have developed a flexible ceramic 3-D printed bone implant. Called ‘Hyperelastic Bone,’ the implant can regenerate bone tissue growth, ultimately becoming part of the patient’s own bone.
Read More
In a new study, researchers have demonstrated a method of regenerating bone using 3-D printed ceramic scaffolds. This technique could possibly replace traditional bone grafts and help those with bone injuries or deformities.
Read More
Researchers showed bioscaffolds out of graphene foam mixed with animal cells could eventually replace cartilage destroyed by osteoarthritis. The military may also use the research to treat musculoskeletal injuries in the field.
Read More
Researchers have developed a glass composite that could be used in fabricating intricate objects. “Glassomer,” a material made of a polymer and quartz, could be useful in a wide variety of industrial applications.
Read More
Researchers have developed a technology to power tiny implantable devices that could be used to monitor medical conditions or treat diseases from inside the human body. The technology uses radio waves, rather than batteries, to power and communicate with the devices.
Read More
Researchers have successfully used a 3-D printer to print an electronic circuit on human skin. The technology could help soldiers on the battlefield to detect chemical or biological agents, and the medical field for treating wounds and constructing skin grafts.
Read More
Researchers at Chalmers University of Technology have devised a way to contract graphene to kill bacteria on the surface of biomedical implants, using a thin layer of atomically thin graphene spikes to slice bacteria apart.
Read More