disrupting technology on the current display market. [5,6] Nevertheless, the scientific community continues to develop new classes of chromophores, [7][8][9][10][11][12][13][14] functional materials, and device architectures to further improve OLEDs performance or extend their application potential, as in visible light communications (VLCs). [15,16] Beside these efforts, there is emerging interest in stimuli-responsive organic devices, which can be controlled remotely by an external trigger, such as light. [17] In organic thin film devices, lightresponsivity can be introduced in the functional layers by embedding a photochromic compound, whose isomers are able to induce a distinct macroscopic effect on the optoelectronic properties of the device. A reversible modulation of such properties can be achieved by irradiating the device with photons of energy sufficient to trigger the reversible dopant photo isomerization process. The most prominent classes of photochromic compounds which have been used successfully in photo-switchable technologies are azobenzenes [18][19][20][21][22] and diarylethenes (DAEs). [20,21] In particular, DAEs show a number of properties which are highly desirable for the design and fabrication of a variety of responsive systems: i) vastly different optical, electrical, and energetic properties between the two, thermally stable, isomers; ii) highly reversible and fatigue