Acid treatment modifies calcium-deficient silicate-substituted apatite to resist phase decomposition above 1100°C while preserving bone repair activity.
Calcium phosphate granules embed BMP-2 growth factors to prevent burst release and enhance bone regeneration.
Coating a BMP-2 derived peptide onto a demineralized bone matrix prevents growth factor migration and reduces side effects during bone healing.
A bioimplant evanescent coating film releases antibiotics through controlled dissolution of low-crystallinity calcium phosphate.
Composite adjunct material degrades to release medicants, resolving manufacturing difficulties while ensuring reliable tissue healing.
Introducing edge dislocations into octacalcium phosphate within a gelatin matrix improves absorption rates and mechanical strength for large bone defects.
Low-temperature crosslinking creates a moldable sponge that seals paravalvular leaks without increasing prosthesis complexity.
A Ti-Zr-Cu alloy with specific heat treatment creates high-strength narrow implants.
In situ mineralization of calcium phosphate in PVA hydrogels yields resorbable grafts that mimic natural bone structure.
Composite bone grafts use segmented porosity and parameter-controlled resorption to maintain mechanical integrity while enhancing vascularization.
Segmented photoinitiators and oxygen quenching prevent residual polymerization, eliminating unintended optical power drift in light adjustable lenses.
A silver-coated porous titanium alloy structure promotes osseointegration while inhibiting bacterial adhesion on orthopedic implants.
Recombinant PDGF impregnated bone graft material stimulates osteoblast proliferation and angiogenesis to accelerate tissue repair.
Amphiphilic lipopeptides remove cellular components without damaging structural proteins, reducing calcification risk in heart valve prostheses.
Deformable U-shaped stapes engagement legs adjust length to match patient anatomy, reducing bias loads on the oval window membrane.
High internal phase emulsions form 3D collagen scaffolds with controlled pore sizes, overcoming electrospinning limitations for tissue engineering.