Hydroxyapatite, a form of calcium apatite, is widely used as a synthetic bone substitute in the regeneration of bone and dental tissues. Due to its composition and structure being similar to the natural minerals found in human bones, hydroxyapatite has high biocompatibility and effectively supports the formation of new tissue. However, when used alone, this material still has certain limitations, such as relatively low mechanical strength and limited long-term durability.
To overcome these drawbacks, scientists have combined hydroxyapatite with graphene and chitosan to create a more advanced composite material. Research results show that this combination brings significant improvements. Specifically, the new material exhibits higher strength, better corrosion resistance, and enhanced flexibility compared to hydroxyapatite alone.
In addition, the overall mechanical properties are improved, allowing the material to better withstand physical stress when used in the body. Notably, its osteogenic properties are also enhanced, supporting more effective bone regeneration and healing processes. With these outstanding advantages, the combination of graphene, hydroxyapatite, and chitosan is opening up promising opportunities in the field of biomedicine, particularly in the development of advanced implants and tissue engineering materials in the future.
