Bone implants integrate better with the body when they mimic the natural handiness of molecules that make up our bones.

Bone implants integrate better with the body when they mimic the natural handiness of molecules that make up our bones.
A new biomaterial shows unprecedented success at eliminating bacteria that cause bone infections and promote the regrowth of injured bones.
A fresh approach to paleoart is providing scientists with the opportunity to paint a vastly different picture of dinosaur life.
In the lab, a multi-functional hydrogel was shown to not only repair defects but also strengthen bone weakened by osteoporosis.
While radiographic imaging can evaluate bone healing post surgery, a smart, self-aware implant could eliminate unnecessary exposure to radiation.
A new material gives way to simple microrobots that take advantage of mineralization processes in the body to help in bone repair.
The strong adhesive nature of this artificial tissue combined with its ability to sustain the growth of new cells helps solve long-standing challenges with these types of grafts.
Micropillar arrays using UV nanoimprint lithography essentially trick cells to become bone.
Modern biology considers bone cells essential for bone development and health. However, when bone initially evolved some 400-million years ago, these were missing. So why did bone cells evolve?
Researchers develop a new strategy to 3D print bone-mimicking structures at room temperature incorporating live, bone-forming cells.