Table 5.
Skin tissue engineering applications
| Nanocomposite | Synthesis method | Highlights | References |
|---|---|---|---|
| CSH/PAA/Dch-PPy | Free-radical polymerization | Mimic human skin | [20, 55] |
| CS-g-PA/PEG-co-PGS | The facile approach of mixing under physiological conditions | Antibacterial properties | [20, 86] |
| Wound healing | |||
| in vivo clotting | |||
| Collagen deposition | |||
| GO-PLGA/Col hybrid fiber sheets | Dual electrospinning method | Wound healing | [50] |
| Increased proliferation of human dermal fibroblasts (HDFs) | |||
| 3D GF | CVD with Ni foam as a template | Wound healing | [60] |
| Enhance growth and proliferation of MSCs | |||
| Reduce scar formation | |||
| Guides the wound healing process | |||
| HA-DA/rGO hydrogel dressing | EDC/NHS coupling | Wound healing | [61] |
| Enhances vascularization | |||
| Improve granulation tissue thickness | |||
| Collagen deposition | |||
| GO-PEG/Que/Col scaffold | ECD-catalyzed amide formation under ultrasonication | Diabetic wound healing | [63] |
| Promote collagen deposition | |||
| Angiogenesis in diabetic wound repair | |||
| Amplify attachment and proliferation of MSCs | |||
| MoSe2-NIPAM hydrogels | Simultaneous exfoliation and functionalization | Wound repair | [57] |
| Tunable dual stimuli-responsive behavior | |||
| CS-Gel/nZnO scaffolds | In situ synthesis of nZnO NPs | Possess antibacterial and biodegradable properties | [56] |