The exploration of photovoltaic organic materials at millimeter-wave (mm-wave) frequencies has gained substantial traction, driven by their potential for powering self-sufficient Internet of Things (IoT) applications and facilitating the integration of electronic components onto organic substrates . The advent of 5G technology, earmarking the 28 and 38 GHz frequency bands for cellular and IoT devices, further accentuates this interest . However, mmWave applications in wireless communication systems encounter challenges, such as signal attenuation from physical obstructions, leading to shadowing, multiple reflections, and increased path losses. Beamforming, a line-of-sight communication technique, has emerged as a promising solution to mitigate these losses by directing the antenna's main beam towards the receiver, thus reducing reflection and shadow losses . In this milieu, phase shifters play a crucial role in beamforming hubs, significantly influencing both cost and performance. Conventionally, phase shifters are based on PIN diodes, ferrites, and ferroelectric ceramics . However, recent developments in organic materials have led to a focus on liquid crystal (LC)-based phase shifters, our focus in particularly non-fullerene acceptor (NFA) blends, due to their elevated dielectric constant at mm wave frequencies, enabling reduced component sizes . Additionally, the self-powered nature of these components makes them ideal for mm-wave applications.