Herein,　a　novel　material　design　strategy　is　proposed:　an　interpenetrating　composite　composed　of　a　woven　orthogonal　spiral　metal　skeleton　and　polyurethane　(PU)　elastomer.　This　interpenetrating　composite　combines　rigidity　and　flexibility,　exhibiting　excellent　elasticity　and　deformation　recovery.　The　deformation　behavior　and　mechanical　properties　of　the　composites　under　various　loading　conditions　are　investigated　through　experiments　and　numerical　simulations.　Different　degrees　of　warping　behaviors　occur　in　composites　with　various　structural　parameters　under　uniaxial　tension.　Alternating　rotations　and　double　spiral　arrangements　can　significantly　limit　the　warping　phenomenon,　with　a　maximum　reduction　of　78%.　The　bending　load　capacity　is　regularly　increased　by　increasing　the　wire　diameter　and　decreasing　the　pitch.　Increasing　the　number　of　loaded　spiral　wires　enhances　the　bending　load　capacity　of　the　composites.　Uniaxial　compression　tests　demonstrate　that　the　composites　have　excellent　load-carrying　capacity　and　strain　recovery,　with　compressive　strength　1.5　times　that　of　pure　PU.　Cyclic　compression　tests　further　illustrate　the　excellent　energy　consumption　capacity　and　stability　of　the　composites.　Overall,　the　introduction　of　orthogonal　spiral　skeletons　into　the　composites　demonstrates　the　potential　to　achieve　enhanced　load-carrying　capacity　and　large　strain　recovery　simultaneously.