Graphene is not limited to supporting bone regeneration; it also shows great potential in the treatment and restoration of many other types of tissues in the human body. Studies have shown that certain forms of graphene exhibit high biocompatibility with human osteoblasts and mesenchymal stem cells. Notably, graphene can effectively mimic the natural physiological microenvironment of cells, thereby providing ideal conditions for cell growth and normal function.
When cells are cultured in environments supported by graphene, they demonstrate significant improvements in growth, proliferation, and differentiation into specialized cell types. This is particularly important in the field of tissue engineering, where controlling cell development and directing differentiation are key factors. At the same time, experiments indicate that graphene does not negatively affect cell viability, highlighting its safety and strong potential for biomedical applications.
In particular, stem cells—especially mesenchymal stem cells—play a crucial role in regenerating and repairing damaged tissues. The use of graphene to support the cultivation and development of stem cells opens up new opportunities for treating complex conditions, especially neurological disorders and neurodegenerative diseases such as Alzheimer’s and Parkinson’s. As a result, graphene not only advances scientific research but also holds promise for delivering breakthrough solutions to improve human quality of life in the future.
