This　study　addresses　the　enhancement　of　thermal　stability　of　zinc　alloys,　which　commonly　experience　reduced　mechanical　performance　beyond　100　degrees　C.　The　304　stainless　steel　wires　(SSWs)　were　utilized　to　fabricate　a　3D　porous　metal　rubber　(MR)　skeleton,　facilitating　the　infusion　of　molten　zinc　alloys　(ZA8)　via　squeeze　casting　to　prepare　MR/ZA8　composites.　The　impact　of　varying　SSW　volume　fractions　on　the　static　compression　creep　(SCC)　behavior　of　the　MR/ZA8　composites　at　250　degrees　C　was　investigated,　while　exploring　their　SCC　failure　mechanisms.　Energy　dispersive　spectrometer　was　used　to　analyze　the　MR/ZA8　composites　both　before　and　after　the　creep　experiments.　Findings　revealed　that　in　comparison　to　ZA8,　MR/ZA8　composites　exhibited　notably　lower　SCC　strain,　diminishing　with　the　increased　SSW　volume　fraction.　Under　the　applied　stresses　of　12　MPa,　17　MPa　and　20.4　MPa,　the　steady-state　SCC　rate　of　MR/ZA8　composites　experienced　a　reduction　of　1　order　of　magnitude　compared　to　ZA8.　The　apparent　stress　exponent　n　value　ranged　from　3.37　to　4.84,　indicating　a　SCC　mechanism　dominated　by　dislocation　climb　within　the　two　materials.　The　elemental　composition　of　the　MR/ZA8　composites　remained　largely　unchanged,　and　the　MR　skeleton　in　the　MR/ZA8　did　not　undergo　oxidation.