Table 1.
Comparison of materials forms, methods, and efficacy with other biomaterials used in the treatment of cutaneous wounds
| Materials | Forms | Method | Effects | Year | References |
|---|---|---|---|---|---|
| VSFNPs | Scaffolds | Chemical crosslinking | Inhibit bone infections and drug slow release | 2017 | [54] |
| PEGS–FA | Hydrogel | Chemical crosslinking | In vivo blood clotting, antibacterial, anti-oxidant and electroactive dressing | 2017 | [55] |
| SF | Scaffolds | Lyophilization | Promote neovascularization and cell migration | 2018 | [5] |
| SF | Hydrogel | Self-assembly | Promote proliferation of fibroblasts and migration of keratinocytes | 2018 | [56] |
| MHA/TPEG | Hydrogel | Photopolymerization | – | 2018 | [57] |
| PAF | Films | Chemical crosslinking | Promoted the epithelialization and well-organized collagen deposition | 2019 | [58] |
| GT–DA/CHI/CNT | Hydrogel | Chemical crosslinking | Hemostatic, antioxidant and antimicrobial | 2019 | [59] |
| QHM | Hydrogel | Chemical crosslinking | Hemostasis and antibacterial | 2019 | [60] |
| SF/FGF1 | Hydrogel | Sonication | Promote the wound healing | 2019 | [12] |
| BC–MMT–Ag | Hydrogel | Chemical crosslinking | Inhibit growth in agar plates and biofilm formation | 2020 | [61] |
| DABH | Hydrogel | Chemical crosslinking | Hemostasis and wound healing. | 2020 | [62] |
| MHA/MaPVA |
Nanofibers Membrane |
Photocrosslinking | Promote the cell attachment | 2019 | [63] |
| ACC@Fe2+/BML-CaSi-GP | Scaffolds | Chemical crosslinking | Antitumor and tissue repair | 2021 | [64] |
| Ag–AV–SF | Hydrogel | Photocrosslinking | Promote the cell proliferation and migration, inhibit the immune reaction. | 2021 | This work |