Electrical　stimulation　can　facilitate　wound　healing　with　high　efficiency　and　limited　side　effects.　However,　current　electrical　stimulation　devices　have　poor　conformability　with　wounds　due　to　their　bulky　nature　and　the　rigidity　of　electrodes　utilized.　Here,　a　flexible　electrical　patch　(ePatch)　made　with　conductive　hydrogel　as　electrodes　to　improve　wound　management　was　reported.　The　conductive　hydrogel　was　synthesized　using　silver　nanowire　(AgNW)　and　methacrylated　alginate　(MAA),　with　the　former　chosen　as　the　electrode　material　considering　its　antibacterial　properties,　and　the　latter　used　due　to　its　clinical　suitability　in　wound　healing.　The　composition　of　the　hydrogel　was　optimized　to　enable　printing　on　medical-grade　patches　for　personalized　wound　treatment.　The　ePatch　was　shown　to　promote　re-epithelization,　enhance　angiogenesis,　mediate　immune　response,　and　prevent　infection　development　in　the　wound　microenvironment.　In　vitro　studies　indicated　an　elevated　secretion　of　growth　factors　with　enhanced　cell　proliferation　and　migration　ability　in　response　to　electrical　stimulation.　An　in　vivo　study　in　the　Sprague-Dawley　rat　model　revealed　a　rapid　wound　closure　within　7　days　compared　to　20　days　of　usual　healing　process　in　rodents.