We　present　a　one-step　scheme　in　circuit　quantum　electrodynamics　(QED)　to　realize　multi-target　controlled　phase　gates　by　using　one　microwave　cavity　that　is　coupled　capacitively　to　a　superconducting　flux　qutrit　which　plays　the　control　role　and　simultaneously　controls　n　target　qutrits　embedded　in　the　microwave　cavity.　A　strong　classical　field　is　imposed　on　the　control　qutrit　so　as　to　yield　two　dressed　states,　one　of　which　is　coded　as　a　logical　state.　The　controlled　phase　gates　can　be　employed　to　achieve　the　creation　of　entangled　states　deterministically　without　any　measurement,　including　the　Bell　state,　the　GHZ　state,　and　the　cluster　state.　Numerical　simulations　demonstrate　that　the　high-fidelity　creation　of　the　entangled　state　is　feasible　with　the　constructed　controlled　phase　gate　under　the　present　circuit　QED　technology.　Copyright　(C)　EPLA,　2019