With　the　increasing　prevalence　of　drug-resistant　bacterial　infections　and　the　slow　healing　of　chronically　infected　wounds,　the　development　of　new　antibacterial　and　accelerated　wound　healing　dressings　has　become　a　serious　challenge.　In　order　to　solve　this　problem,　we　developed　photo-crosslinked　multifunctional　antibacterial　adhesive　anti-oxidant　hemostatic　hydrogel　dressings　based　on　polyethylene　glycol　monomethyl　ether　modified　glycidyl　methacrylate　functionalized　chitosan　(CSG-PEG),　methacrylamide　dopamine　(DMA)　and　zinc　ion　for　disinfection　of　drug-resistant　bacteria　and　promoting　wound　healing.　The　mechanical　properties,　rheological　properties　and　morphology　of　hydrogels　were　characterized,　and　the　biocompatibility　of　these　hydrogels　was　studied　through　cell　compatibility　and　blood　compatibility　tests.　These　hydrogels　were　tested　for　the　in　vitro　blood-clotting　ability　of　whole　blood　and　showed　good　hemostatic　ability　in　the　mouse　liver　hemorrhage　model　and　the　mouse-tail　amputation　model.　In　addition,　it　has　been　confirmed　that　the　multifunctional　hydrogels　have　good　inherent　antibacterial　properties　against　Methicillin-resistant　Staphylococcus　aureus　(MRSA).　In　the　full-thickness　skin　defect　model　infected　with　MRSA,　the　wound　closure　ratio,　thickness　of　granulation　tissue,　number　of　collagen　deposition,　regeneration　of　blood　vessels　and　hair　follicles　were　measured.　The　inflammation-related　cytokines　(CD68)　and　angiogenesis-related　cytokines　(CD31)　expressed　during　skin　regeneration　were　studied.　All　results　indicate　that　these　multifunctional　antibacterial　adhesive　hemostatic　hydrogels　have　better　healing　effects　than　commercially　available　Tegaderm™　Film,　revealing　that　they　have　become　promising　alternative　in　the　healing　of　infected　wounds.