The　high　variability　of　shock　in　terrorist　attacks　poses　a　threat　to　people＇s　lives　and　properties,neces-sitating　the　development　of　more　effective　protective　structures.This　study　focuses　on　the　angle　gradient　and　proposes　four　different　configurations　of　concave　hexagonal　honeycomb　structures.The　structures＇macroscopic　deformation　behavior,stress-strain　relationship,and　energy　dissipation　characteristics　are　evaluated　through　quasi-static　compression　and　Hopkinson　pressure　bar　impact　experiments.The　study　reveals　that,under　varying　strain　rates,the　structures　deform　starting　from　the　weak　layer　and　exhibit　significant　interlayer　separation.Additionally,interlayer　shear　slip　becomes　more　pronounced　with　increasing　strain　rate.In　terms　of　quasi-static　compression,symmetric　gradient　structures　demonstrate　superior　energy　absorption,particularly　the　symmetric　negative　gradient　structure(SNG-SMS)with　a　specific　energy　absorption　of　13.77　J/cm3.For　dynamic　impact,unidirectional　gradient　structures　exhibit　exceptional　energy　absorption,particularly　the　unidirectional　positive　gradient　honeycomb　structure(UPG-SML)with　outstanding　mechanical　properties.The　angle　gradient　design　plays　a　crucial　role　in　determining　the　structure＇s　stability　and　deformation　mode　during　impact.Fewer　interlayer　separations　result　in　a　more　pronounced　negative　Poisson＇s　ratio　effect　and　enhance　the　structure＇s　energy　ab-sorption　capacity.These　findings　provide　a　foundation　for　the　rational　design　and　selection　of　seismic　protection　structures　in　different　strain　rate　impact　environments.