  In triangular lattice structures, spatial anisotropy and frustration can lead
to rich equilibrium phase diagrams with regions containing complex, highly
entangled states of matter. In this work we study the driven two-rung
triangular Hubbard model and evolve these states out of equilibrium, observing
how the interplay between the driving and the initial state unexpectedly shuts
down the particle-hole excitation pathway. This restriction, which symmetry
arguments fail to predict, dictates the transient dynamics of the system,
causing the available particle-hole degrees of freedom to manifest uniform
long-range order. We discuss implications of our results for a recent
experiment on photo-induced superconductivity in ${\rm \kappa -
(BEDT-TTF)_{2}Cu[N(CN)_{2}]Br}$ molecules.
