Scalability remains a significant difficulty in quantum computing, owing to the necessity for precise control over quantum states and minimizing losses during quantum operations. Because of their inherent electro-optic qualities, liquid crystals (LCs) offer a viable path to scalability, allowing for dynamic reconfiguration of optical channels and states within integrated circuits. However, attaining low-loss integration and maintaining coherence across large-scale systems present significant challenges. Addressing these difficulties would require material science and fabrication breakthroughs to reduce flaws and photon losses when several components are connected