Natural Polymers
|
1 |
Chitosan |
Nanocomposite films and jaw skin scaffolds |
Enhanced biologically active characteristics, tensile strength, and cell proliferation |
[48,81,82] |
2 |
Collagen |
Three-dimensional CNT covered jaw and jaw repair biological materials |
Improved functionality and mechanical stability |
[60,83] |
3 |
Microbial cellulose |
Bone tissue scaffolds |
Enhanced mechanical characteristics and proliferation |
[84] |
4 |
Silk fibroin |
Nanocomposite films |
Supports jaw cell adhesion and development |
[85] |
5 |
Collagen–hydroxyapatite and gelatin–chitosan |
Jaw scaffold materials |
Enhanced stiffness, elastic modulus, elongation rate, and cell viability |
[86,87] |
Calcium Phosphate
|
1 |
Hydroxyapatite |
Jaw implant materials |
Enhanced jaw integration, mechanical features, and novel bone materialization |
[88,89,90] |
2 |
Calcium phosphate |
Injectable jaw substitutes |
Enhanced compressive strength and hydroxyapatite (HA) crystal formation |
[51] |
3 |
β-tricalcium phosphate |
Jaw repair materials |
Enhanced HA and apatite formation |
[91] |
Synthetic Polymers
|
1 |
Polylactic acid |
NC materials and jaw tissue engineering |
Enhanced tensile strength and thermal solidity and possesses electrical conductivity |
[71,92] |
2 |
Poly(lactide-co-glycolide) |
Jaw repair and tissue scaffolds |
Exhibits better tissue and cell compatibility, enhanced mechanical strength and proliferation |
[15,70,93] |
3 |
Polycaprolactone |
Three-dimensional jaw scaffolds |
Enhanced cell proliferation and tensile strength |
[69,94] |