Original molecular vectors that ensure broad flexibility to tune the shape and surface properties of plasmid DNA (pDNA) condensates are reported herein.T he prototypic design involves ac yclodextrin (CD) platform bearing a polycationic cluster at the primary face and ad oubly linked aromatic module bridging two consecutive monosaccharide units at the secondary face that behaves as at opology-encoding element.S ubtle differences at the molecularl evel then translate into disparatem orphologies at the nanoscale, including rods, worms, toroids, globules, ellipsoids, and spheroids. In vitro evaluation of the transfection capabilities revealedm arked selectivity differences as af unction of nanocomplexm orphology. Remarkably high transfection ef-ficiencies were associatedw ith ellipsoidal or spherical shapesw ith al amellar internal arrangemento fp DNA chains and CD bilayers. Computational studies support that the stability of such supramolecular edifices is directly related to the tendency of the molecular vectort of orm noncovalent dimers upon DNA templating.B ecause the stabilityo ft he dimers depends on the protonation state of the polycationic clusters,t he coaggregates display pH responsiveness, which facilitates endosomal escapea nd timely DNA release, ak ey step in successful transfection. The results provide av ersatile strategy for the construction of fully synthetic and perfectly monodispersen onviral gene delivery systems uniquely suitedf or optimizations chemes.