Developing　injectable　nanocomposite　conductive　hydrogel　dressings　with　multifunctions　including　adhesiveness,　antibacterial,　and　radical　scavenging　ability　and　good　mechanical　property　to　enhance　full-thickness　skin　wound　regeneration　is　highly　desirable　in　clinical　application.　Herein,　a　series　of　adhesive　hemostatic　antioxidant　conductive　photothermal　antibacterial　hydrogels　based　on　hyaluronic　acid-graft-dopamine　and　reduced　graphene　oxide　(rGO)　using　a　H2O2/HPR　(horseradish　peroxidase)　system　are　prepared　for　wound　dressing.　These　hydrogels　exhibit　high　swelling,　degradability,　tunable　rheological　property,　and　similar　or　superior　mechanical　properties　to　human　skin.　The　polydopamine　endowed　antioxidant　activity,　tissue　adhesiveness　and　hemostatic　ability,　self-healing　ability,　conductivity,　and　NIR　irradiation　enhanced　in　vivo　antibacterial　behavior　of　the　hydrogels　are　investigated.　Moreover,　drug　release　and　zone　of　inhibition　tests　confirm　sustained　drug　release　capacity　of　the　hydrogels.　Furthermore,　the　hydrogel　dressings　significantly　enhance　vascularization　by　upregulating　growth　factor　expression　of　CD31　and　improve　the　granulation　tissue　thickness　and　collagen　deposition,　all　of　which　promote　wound　closure　and　contribute　to　a　better　therapeutic　effect　than　the　commercial　Tegaderm　films　group　in　a　mouse　full-thickness　wounds　model.　In　summary,　these　adhesive　hemostatic　antioxidative　conductive　hydrogels　with　sustained　drug　release　property　to　promote　complete　skin　regeneration　are　an　excellent　wound　dressing　for　full-thickness　skin　repair.