Hydrogels |
Chitosan, heparin and poly(γ-glutamic acid) |
SOD |
Diabetic rat model |
Accelerating re-epithelialization and collagen deposition |
[61] |
Poly(N-isopropyl-acrylamide)/poly(γ-glutamic acid) |
SOD |
Diabetic rat model |
Antioxidant activity and high wound closure rate |
[62] |
GelMA with dopamine motifs |
Cerium oxide NPs and AMP |
Rats |
(ROS) scavenging and antibacterial properties |
[65] |
SBMA, CBMA and HEMA |
Cerium oxide and microRNA-146 |
Mice |
Accelerating wound healing |
[66] |
Chitosan-PEG |
Silver NPs |
Diabetic rabbits |
Antioxidant and antibacterial activity |
[67] |
Chitosan |
Eugenol |
- |
Antioxidant activity |
[71] |
Chitosan-g-polyaniline and benzaldehyde |
PEG-co-poly(glycerol sebacate) |
Mice |
Good self-healing, electro-activity and free radical scavenging capacity |
[72] |
Carboxybetaine dextran and sulphobetaine dextran |
- |
Mice |
Self-healing, antioxidative and antifouling properties |
[73] |
Alginate |
Edudragit NPs and Edavarone |
Mice |
Wound healing promoting and efficient free radical scavenging |
[74] |
Polyvinyl alcohol |
Mupirocin and GM-CSF |
Diabetic mice |
Antibacterial activity and wound closure promoting |
[75] |
Silk fibroin |
Melanin and berberine |
Diabetic rat |
Re-epithelialization and wound repair promoting |
[76] |
Inorganic NPs |
Prussian Blue NPs |
- |
Mice |
Antioxidant and collagen deposition |
[64] |
Liposomal particles |
Lecithin nano-liposol |
astaxanthin |
NIH/3T3 cells |
ROS scavenging and antioxidant capacity |
[77] |
Polymeric matrix |
Cellulose |
Nanochitosan dust |
Human gingival cells |
Antioxidant and antimicrobial activity |
[70] |
PLA |
Asiatic acid |
Diabetic mouse model |
Accelerating re-epithelization, angiogenesis and ECM formation |
[79] |
Poly(L-Lactic-co-caprolactone) (PLCL) |
EGCG |
Rat liver trauma model |
Promoting wound healing and tissue organization |
[81] |