Although plasmonic nanostructure has attracted widespread research interest in recent years, it is still a major challenge to realize large-scale active plasmonic nanostructure operation in the visible optical frequency. Herein, we demonstrate a heterostructure geometry comprising a centimeter-scale Au nanoparticle monolayer and ${\mathrm{VO}}_2$ films, in which the plasmonic peak is inversely tuned between 685 nm and 618 nm by a heating process since the refractive index will change when ${\mathrm{VO}}_2$ films undergo the transition between the insulating phase and the metallic phase. Simultaneously, the phase transition of ${\mathrm{VO}}_2$ films can be improved by plasmonic arrays due to plasmonic enhanced light absorption and the photothermal effect. The phase transition temperature for $\mathrm{Au}/{\mathrm{VO}}_2$ films is lower than that for bare ${\mathrm{VO}}_2$ films and can decrease to room temperature under the laser irradiation. For light-induced phase transition of ${\mathrm{VO}}_2$ films, the laser power of $\mathrm{Au}/{\mathrm{VO}}_2$ film phase transition is $～28.6\%$ lower than that of bare ${\mathrm{VO}}_2$ films. Our work raises the feasibility to use active plasmonic arrays in the visible region.