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In this paper, we study the full conductance statistics of disordered onedimensional wire under the application of light. We develop the transfer matrixmethod for periodically driven systems to analyze the conductance of largesystem with small frequency of light, where coherent photon absorptions playimportant role to determine not only the average but also the shape ofconductance distributions. The average conductance under the application oflight results from the competition between dynamic localization and effectivedimension increase, and shows non-monotonic behavior as a function of drivingamplitude. On the other hand, the shape of conductance distribution displayscrossover phenomena in the intermediate disorder strength; the application oflight dramatically changes the distribution from log-normal to normaldistributions. Furthermore, we propose that conductance of disordered systemscan be controlled by engineering the shape, frequency and amplitude of light.Change of the shape of driving field controls the time-reversals symmetry andthe disordered system shows analogous behavior as negative magneto-resistanceknown in static weak localization. A small change of frequency and amplitude oflight leads to a large change of conductance, displaying giant-opto response.Our work advances the perspective to control the mean as well as the fullconductance statistics by coherently driving disordered systems.

Photo control of transport properties in disorderd wire; average conductance, conductance statistics, and time-reversal symmetry