GelMA hydrogels demonstrate that the architecture of matter itself can modulate the architecture of inflammation.
Engineered implant interfaces choreograph proteins, cells, and immunity to convert metal into living bone contact.
Peptide biomaterials are programmable building blocks that rewire scaffolds into active agents of tissue repair.
Electroconductive graphene scaffolds guide Lgr5⁺ progenitors toward bona fide hair-cell phenotypes by aligning membrane biophysics with lineage-specifying transcriptional cues.
Graphene is transforming orthopedic medicine by uniting structural, biochemical, and catalytic properties into next-generation implants for bone and cartilage repair.
Plant viral nanofibers embedded in GelMA act as programmable threads that shape, signal, and strengthen tissue-engineered constructs.
Semaphorin 3A directs sensory nerves and type H vessels to sequentially structure bone formation during in situ osteogenesis.
Chitosan-salvianolic acid B coatings provide a biomaterial strategy that integrates sustained drug release with cellular selectivity to improve vascular healing after stenting.
Next-generation corneal implants combine engineered collagen stability with electron-beam sterilization to deliver safe, effective alternatives for vision restoration.
The PNIPAm-NMA-Ac membrane highlights interdisciplinary innovation in addressing global antimicrobial challenges.
The study of Ca-Mg-Si-based multiphase bioceramics marks a significant step forward in biomaterials science.
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