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We present ar oom temperature topotactic consolidation of cobalt and zinc constituents into monocrystalline CoZn hydroxide nanosheets,b yalocalized corrosion of zinc foils with cobalt precursors.B yv irtue of similar lattice orientation and structure coordination, the hybrid hydroxides amalgamate atomically without phase separation. [2] Nonetheless,o btaining high-quality monocrystalline topochemical reactions is still ac hallenge and often demands high-temperature processes [3] or expensive equipment, such as ultrahigh vacuum pulsed laser, [4] thereby making the technique impractical for largescale applications.F urthermore,r eported topotactic transformations,s uch as metal oxidization, [5] phase transition, [6] and conversion of hydroxides into oxides or metals, [7] primarily involve as ingle metal cation, which precludes formation of bi-/multinary constituents.Inthe context of the ability of multi-component materials to alter electronic states that exhibit strong interplay between the strength of surface intermediate bonds and electrochemical reactivity, [8] it is essential to readily access topotactic consolidation of two or more constituents within ah omogeneous entity.Herein, we demonstrate am ild room temperature topotactic consolidation of cobalt-zinc hydroxides (CZH) with an ensemble of nanosheets,byaninsitu corrosion of zinc foils mediated by cobalt precursors.T he defining advantage of such am etal corrosion technique is its undeniably simple low-cost route,w hich enables spontaneous electrochemical dissolution-redeposition without the expense of external energy.T he chemical etching dissolves metals into their ion derivatives,w hich further self-assemble into their respective oxides or inorganic salts. [1] Thep rowess of topotactical conversion is that it supersedes equilibrium crystal shapes/habits,t hereby allowing phase to be correlated with coordinated structures at atomic homogeneity.