In our efforts to systematically investigate the effects of the linker units of flexible ligands and other factors on the structures of Ag-1 complexes with thioethers, five new flexible pyridyl thioether ligands, bis(2-pyridylthio) methane (L-1), 1,3-bis(2-pyridylthio)propane (L-3), 1,4-bis(2-pyridylthio)butane (L-4), 1,5-bis(2-pyridylthio)pentane (L-5), and 1,6-bis(2-pyridylthio)hexane (L-6), have been designed and synthesized, and the reactions of these ligands with Ag-1 salts under varied conditions (varying the solvents and counteranions) lead to the formation of eight novel metalorganic coordination architectures from di- and trinuclear species to two-dimensional networks: [Ag-3(L-1)(2)(CIO4)(2)]-(ClO4) (1), {[AgL3] (ClO4)]}(infinity) (2), {[Ag-2(L-4)(2)](ClO4)(2)(CHCl3)}(infinity) (3), {[AgL4](ClO4)(C3H6O)}(infinity) (4), {[Ag2L4](NO3)(2)}(infinity) (5), [Ag2L4(CF3SO3)(2)](infinity) (6), [AgL5](ClO4)(CHCl3)}(2) (7), and {[AgL6](ClO4)}(infinity) (8). All the structures were established by single-crystal X-ray diffraction analysis. The coordination modes of these ligands were found to vary from N,N-bidentate to N,N,S-tridentate to N,N,S,S-tetradentate modes, while the Ag-1 centers adopt two-, three-, or four-coordination geometries with different coordination environments. The structural differences of 1, 2, 3, 7, and 8 indicate that the subtle variations on the spacer units can greatly affect the coordination modes of the terminal pyridylsulfanyl groups and the coordination geometries of Ag-1 ions. The structural differences of 3 and 4 indicate that solvents also have great influence on the structures of Ag-1 complexes, and the differences between 3, 5, and 6 show counteranion effects in polymerization of Ag-1 complexes. The influences of counterions and solvents on the frameworks of these complexes are probably based upon the flexibility of ligands and the wide coordination geometries of Ag-1 ions. The results of this study indicate that the frameworks of the Ag-1 complexes with pyridyl dithioethers could be adjusted by ligand modifications and variations of the complex formation conditions.