Repeated　impacts　occur　frequently　and　the　damage　to　its　structure　cannot　be　underestimated　in　national　defense　weapons　and　equipment.　In　this　article,　the　mechanical　properties　and　impact　behaviors　of　entangled　metallic　wire　material　(EMWM)　with　different　relative　densities　under　repeated　low-velocity　impacts　were　investigated　via　a　series　of　mechanical　tests.　Each　EMWM　specimen　was　subjected　to　an　impact　test　of　6　m/s　each　time,　and　the　test　was　repeated　ten　times.　Experimental　results　show　that　with　the　increase　of　the　number　of　impact　cycles,　the　damage　of　EMWM　progressively　intensifies,　the　impact　stiffness　increases,　and　the　energy　absorption　rate　decreases.　The　mechanical　properties　of　EMWM　with　higher　relative　density　are　more　stable　under　repeated　impacts,　it　displays　stronger　repeated　impact　resistance,　and　it　is　suitable　to　withstand　repeated　impacts.　After　reaching　a　certain　number　of　impact　cycles,　the　energy　absorption　rate　tends　to　be　stable.　The　energy　absorption　of　the　EMWM　mainly　comes　from　the　dry　friction　between　the　adjacent　wire　helixes,　the　plastic　deformation　of　EMWM,　and　air　damping.　Moreover,　the　impact　failure　mechanisms　of　EMWM　under　repeated　low-velocity　impacts　were　described.　The　electron　microscope　photos　show　that　the　EMWM　specimen　has　no　obvious　damage　after　repeated　impacts,　and　it　has　good　repeatable　impact　ability.