In　this　paper,　we　propose　a　protocol　to　achieve　fast　and　robustness　quantum　information　transfer　(QIT)　in　annular　and　radial　superconducting　networks,　where　each　quantum　node　is　composed　of　a　superconducting　quantum　interference　device　(SQUID)　inside　a　coplanar　waveguide　resonator　(CPWR).　The　process　is　based　on　reversely　constructing　time-dependent　control　Hamiltonian　by　designing　evolution　operator.　With　the　protocol,　the　maximal　population　of　lossy　intermediate　states　and　the　amplitudes　of　pulses　can　be　easily　controlled　by　two　corresponding　control　parameters.　Therefore,　one　can　design　feasible　pulses　for　QIT　with　great　flexibility.　Besides,　the　speed　of　the　QIT　here　is　much　faster　compared　with　that　with　adiabatic　QIT.　Moreover,　numerical　simulations　show　that　the　protocol　still　possesses　high　fidelity　when　lossy　factors　and　imperfect　operations　are　taken　into　account.　Therefore,　the　protocol　may　provide　a　useful　way　to　manipulate　quantum　information　networks.