This paper presents the development and performance of liquid crystal devices with graphene-based electrodes. The authors demonstrate that graphene, a two-dimensional material with excellent optical transparency, low resistivity, and chemical stability, can serve as an effective transparent conductor in liquid crystal devices. They fabricate liquid crystal devices using graphene-on-glass films as one of the transparent electrodes, showing high contrast ratios and uniform electric field application. The study also highlights the advantages of graphene over conventional metal oxides, such as lower resistivity, higher transparency, and better chemical stability. Additionally, the authors explore methods for mass production of graphene-based transparent conductors, including chemical exfoliation of graphite and spin or spray coating. The results suggest that graphene could be a promising material for optoelectronic devices, particularly in liquid crystal displays.This paper presents the development and performance of liquid crystal devices with graphene-based electrodes. The authors demonstrate that graphene, a two-dimensional material with excellent optical transparency, low resistivity, and chemical stability, can serve as an effective transparent conductor in liquid crystal devices. They fabricate liquid crystal devices using graphene-on-glass films as one of the transparent electrodes, showing high contrast ratios and uniform electric field application. The study also highlights the advantages of graphene over conventional metal oxides, such as lower resistivity, higher transparency, and better chemical stability. Additionally, the authors explore methods for mass production of graphene-based transparent conductors, including chemical exfoliation of graphite and spin or spray coating. The results suggest that graphene could be a promising material for optoelectronic devices, particularly in liquid crystal displays.