A　collaborative　enhancement　design　method　of　load-bearing　and　vibration　isolation　characteristics　for　honeycomb　meta-materials　is　proposed　and　validated　by　a　novel　quasi-chiral　honeycomb　meta-material　(QCHM).　The　QCHM,　which　replaces　the　vertex　of　traditional　diamond　honeycomb　mate-material　(DHM)　with　chiral　structure　and　introduces　metal　pins　into　the　structure,　is　designed　based　on　the　proposed　method.　The　static　mechanical　properties　and　vibration　isolation　capacities　of　the　QCHM　are　analyzed　through　finite　element　method　(FEM)　and　experiments.　In　comparison　to　conventional　DHM,　findings　indicate　that　the　QCHM　surpasses　in　load-bearing　capability　and　stiffness　while　exhibiting　bandgaps　with　reduced　initial　frequency　and　expanded　bandwidth.　Additionally,　the　incorporation　of　particle　damping　further　enhances　the　vibration　attenuation　and　customization　capacities　of　the　QCHM.　Overall,　through　the　concept　of　assembly　to　establish　a　productive　local　resonance　configuration,　this　investigation　directs　vibration　energy　towards　the　local　structure　and　utilizes　particle　damping　for　energy　dissipation,　resulting　in　the　development　of　honeycomb　meta-materials　featuring　superior　load-bearing　capacity　and　broad　low　frequency　bandgap　characteristics.　The　proposed　method　offers　a　viable　approach　for　optimizing　the　implementation　of　meta-materials　in　practical　settings.