The　current　Friction　Stir　Welding　(FSW)　based　solid-state　defect　repairing　method　is　an　ideal　repair　technology　for　high-strength　aluminum　alloy.　However,　due　to　the　limitation　of　pin　length　and　the　existence　of　shoulder,　the　stirring　pin　cannot　penetrate　deep　into　the　root　of　defects　and　is　difficult　to　extend　in　the　width　direction,　which　poses　great　challenges　for　components　with　large　defects,　such　as　one-dimensional,　two-dimensional　and　volume　defects.　To　overcome　these　limitations,　this　study　successfully　achieved　effective　repair　of　various　forms　of　defects　using　the　solid-state　Friction　Rolling　Repair　(FRR)　technology　through　multi-layer　multi-bead　deposition.　The　microstructure　and　mechanical　properties　of　the　repaired　ZL114A　cast　aluminum　alloy　joints　were　investigated.　The　results　demonstrate　well-bonded　repaired　boundaries,　significant　grain　refinement　at　the　junction　between　the　repaired　area　and　boundary,　and　ultimate　tensile　strength　exceeding　80　%　of　base　material　strength.　The　average　grain　size　of　the　repaired　area　can　reach　a　minimum　of　2.82　mu　m.　The　grain　refinement　degree　of　the　side　joint　of　the　surface　defect　repair　sample　is　higher　than　that　of　the　bottom　joint,　and　the　corner　joint　of　the　bottom　surface　shows　the　highest　proportion　of　recrystallized　grains.　Fracture　locations　were　consistently　within　the　interior　of　the　repair　zone　in　tensile　specimens,　indicating　superior　properties　at　side　joints　compared　to　those　within　the　interior.　The　research　proves　that　FRR　has　the　ability　to　repair　a　variety　of　typical　defects,　including　one-dimensional,　two-dimensional　and　volume　defects,　in　the　process　of　processing　and　service,　which　lays　a　foundation　for　the　industrial　application　of　FRR.