Unprecedented multimodal weak interactions are quintessential to create novel supramolecular topologies. Among the plethora of weak interactions, halogen− halogen (X•••X) interactions offer innovative possibilities for the design of multidimensional scaffolds. Herein, we chronicle the state-of-the-art 1D, 2D, and 3D zipper motifs steered by distinct interhalogen interactions, revealing the potential of halogen bonding in engineering biomimetic molecular assemblies. Recurring units of Br 4 synthon, framed by type I and type II atom efficient X•••X interactions in a dibromonaphthathiazole derivative, 2,4-dibromo-5ethoxynaphtho[1,2-d]thiazole (NTB 2 ), forges the molecular zipper. On the basis of the semiclassical Marcus theory of charge transport, the NTB 2 zipper assembly displays selective electron transport along the type II X•••X bonded direction. Band structure analysis classified the crystalline NTB 2 as a wide band gap semiconductor with a band gap of 2.80 eV, respectively. The robustness of the X•••X mediated zipper motif opens up new avenues in the development of advanced functional materials.