The　work　reported　the　preparation　of　hierarchically　porous　carbons　(HPCs)　with　adjustable　pore　architectures　using　high　internal　phase　emulsion　(HIPE)　template　with　the　presence　of　polyaniline-coated　carbon　nanotubes　(PANI-CNTs).　PANI-CNTs　were　obtained　via　in　situ　polymerization　of　aniline　in　CNT　suspension　as　confirmed　by　scanning　electron　microscope　(SEM)　and　thermogravimetric　analysis　(TGA).　Porous　polydivinylbenzene　(PDVB)　monoliths　were　prepared　by　polymerizing　the　continuous　phase　of　HIPE　with　PANI-CNTs　dispersed　in　the　internal　phase.　After　carbonization　and　activation,　HPCs　with　variable　pore　architectures　were　obtained.　As　observed　by　SEM,　the　PANI-CNTs　showed　notable　influence　on　the　pore　architectures　of　PDVBs　and　HPCs.　The　void　size　of　PDVB　precursor　reduced　with　the　increase　of　the　mass　ratio　of　PANI　to　CNT,　as　well　as　the　content　of　PANI-CNTs.　Nitrogen　adsorption/desorption　measurements　indicated　the　coexistence　of　mesopores　and　micropores,　namely,　hierarchical　pores.　The　specific　surface　area　(SSA)　of　HPC　increased　along　with　the　content　of　PANI-CNTs　from　1893　to　2392　m(2)/g.　The　capability　of　HPCs　as　the　electrode　material　of　supercapacitor　was　evaluated　via　electrochemical　tests.　The　results　indicated　that　the　HPC　with　optimized　pore　architecture　showed　a　higher　specific　capacitance　(168.6　F/g)　than　the　contrast　sample　(130.9　F/g)　at　1　A/g.　The　better　capacitance　performance　of　HPC　obtained　with　the　presence　of　PANI-CNTs　could　be　attributed　to　the　reasonable　hierarchical　pores,　higher　SSA,　and　higher　graphitization　degree.