Collagen/oxidized MCC |
Microcellulose improved the haemostasis of the scaffolds without affecting its cytotoxicity. |
[220] |
MFC/gelatine nanocomposite films |
Improved strength and flexibility of the films, which could be used in drug delivery. |
[221] |
Micro-Nano structures of cellulose-collagen |
Significantly enhanced the uniform and distribution of cells, with good mechanical properties, may serve as an alternative material platform for bone regeneration. |
[222] |
MFC/carboxymethyl chitosan hydrogel |
The strength, porosity and the work of fracture increased, providing a promising platform for tissue engineering scaffold. |
[223] |
Alginate/CNF scaffold |
Use in tissue engineering. CNF enhances mechanical properties and makes it possible to tailored porosity and swelling behaviour. |
[224] |
Collagen/CNF hydrogel scaffold |
The addition of CNF to collagen scaffold improved its mechanical properties with no effect on cell viability. |
[225] |
PLA/CNF composite membrane |
CNF improved the crystalline ability of the membrane, thermal stability and mechanical properties. Hydrophilicity was also increased. |
[226] |
NCC/gelatine/hyaluronic acid composite hydrogel |
NCC enhanced rheology and swelling results and the other properties. The cells attached, grew, and proliferated better than the control, giving the composite a great potential for the skin wound repair. |
[157] |
Double crosslinking CNF hydrogel scaffolds |
Wound healing and tissue repair. Increase in the rigidity of scaffold enhances cell proliferation. |
[149] |