3D-Printed　quasi-solid-state　microsupercapacitors　(MSCs)　present　immense　potential　as　next-generation　miniature　energy　storage　devices,　offering　superior　power　density,　excellent　flexibility,　and　feasible　on-chip　integration.　However,　the　challenges　posed　by　formulating　3D　printing　inks　with　high-performance　and　ensuring　efficient　ionic　transport　in　thick　electrodes　hinder　the　development　of　advanced　MSCs　with　high　areal　energy　density.　Herein,　we　report　3D-printed　ultrahigh-energy-density　asymmetric　MSCs　with　latticed　electrodes,　fabricated　using　Ni-Co-S/Co(OH)2/carbon　nanotubes/reduced　graphene　oxide　(Ni-Co-S/Co(OH)2/CNTs/rGO)　positive　electrode　ink　and　activated　carbon　(AC)/CNTs　negative　electrode　ink.　The　latticed　electrodes　feature　abundant　hierarchical　pores　and　an　interconnected　conductive　network　formed　by　coupling　CNTs　and　rGO　(or　AC),　enabling　efficient　ion　and　electron　transport　even　in　thick　electrodes.　The　3D-printed　asymmetric　MSCs　with　three-layer　latticed　electrodes　deliver　an　impressive　areal　energy　density　of　543　μWh　cm-2　and　a　high　areal　capacitance　of　1.74　F　cm-2　at　1　mA　cm-2,　nearly　double　the　performance　of　planar　electrodes　under　identical　conditions.　Furthermore,　the　device　demonstrates　excellent　cycling　stability　(80%　retention　of　the　initial　capacitance　after　5000　cycles).　This　work　advances　the　field　of　3D　printing　for　energy　storage　applications　and　provides　design　principles　for　developing　integrated　flexible　MSCs.　©　2025　American　Chemical　Society.