Researchers at Northwestern University report that they’ve developed a hyperelastic material that can be 3-D-printed into a scaffold that may someday help repair and replace human bone.
Read MoreResearchers at Rice University (Houston, Texas) aren’t missing out on graphene’s skeletal potential—using spark plasma sintering of graphene flakes, the researchers fabricated 3-D porous solids from that they say will make an excellent bone replacement material.
Read MoreResearchers at Drexel University (Philadelphia, Pa.), along with collaborators at the University of Sydney in Australia, are looking to the body’s immune system for insight into why some ceramic scaffold materials promote healing better than others.
Read MoreA team of researchers from Shanghai Jiaotong University and Tongji University in China and Lawrence Berkeley National Lab in Calif. has developed a technique for producing bioglass scaffolds that alone can successfully repair large defects in load-bearing bones.
Read MoreResearchers at Tufts University (Medord, Mass.) and the University of Sydney (Australia) have developed a novel type of biodegradable scaffold that combines silk and ceramic to help broken bodies jointly rebuild the cartilage and bone that compose joints.
Read MoreResearchers at the University of Vigo’s Institute of Biomedical Research of Vigo (Spain) have shown that bioceramics isolated from shark teeth can potentially help regenerate human bone tissue.
Read MoreResearchers from Murdoch University in Australia show that hydroxyapatite pellets, sintered at just the right temperature to get a balance between porosity and strength, can be a suitable material for bone implants.
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