Graphite　has　been　widely　used　as　an　anode　material　for　commercial　lithium-ion　battery　applications　because　of　its　excellent　stability　and　low　cost.　However,　graphite-based　anodes　need　to　improve　the　energy　storage　capacities　to　meet　the　increasing　power　demands　of　next-generation　technologies.　Here,　we　have　developed　a　class　of　novel　and　flexible　electrode　materials　that　consist　of　N-doped　graphene　quantum　dots　supported　by　carbon　nanotubes　grown　on　carbon　cloth　(denoted　as　CC/CNT@N-GQD).　Such　architecture　synergistically　combines　the　advantages　of　three　dimensions/one　dimension　substrates　and　zero　dimension　N-GQDs.　It　greatly　improves　the　electron/ion　transport　kinetics　of　N-GQDs,　resulting　in　attractive　electrochemical　performance　in　terms　of　high　reversible　capacity　and　excellent　rate　capability.　Moreover,　the　annealing　temperature　plays　an　important　role　in　the　control　of　N-doping　types　of　CC/CNT@N-GQD.　CC/CNT@N-GQD　anodes　annealed　at　500　degrees　C　have　a　high　content　of　pyridinic　N,　exhibiting　a　very　excellent　rate　capability　and　cycling　stability,　as　exemplified　by　a　capacity　of　2.88　mAh　cm(-2)　at　4　mA　cm(-2)　and　a　reversible　capacity　of　3.63　mAh　cm(-2)　after　150　cycles　at　0.19　mA　cm(-2).　(C)　2020　The　Electrochemical　Society　(＂ECS＂).　Published　on　behalf　of　ECS　by　IOP　Publishing　Limited.