Liquid crystal qubits present benefits in quantum computing systems compared to other types of qubits. By utilizing the adaptability and adjustability of crystals, it becomes possible to accurately control quantum states and perform intricate quantum computations. Additionally, liquid crystal qubits have the potential to offer a cost-efficient solution for quantum computing since these materials can be easily incorporated into semiconductor fabrication methods . Recent research has highlighted the viability of liquid crystal qubits. Researchers have explored using liquid crystal materials to encode and manipulate quantum information, utilizing their unique properties to achieve coherent control and efficient readout of quantum states . Furthermore, researchers have explored incorporating liquid crystal qubits into superconducting networks, showcasing the possibilities for integrating quantum technology on a scale . Liquid crystal (LC) devices have shown promise for quantum computing applications, such as linear optical quantum computing. These devices are specifically designed to effectively regulate the polarization of laser light, which is essential for quantum information processing. LC devices feature four distinct operating points to control photon polarization, making them suitable for quantum computing . The LC material LIXON5049XX, along with the chiral agent C 15, offers stability, allowing for the control of tuning properties in LC devices. Building LC devices with accurate and consistent cell thickness is crucial to maintain performance in quantum computing applications. To ensure optimal conditions for quantum operations, voltage-transmittance characteristics are measured to evaluate the qualities of LC cells. LC devices boast simpler structures and lower operating voltages than other optical devices, making them appealing for quantum computing applications. The successful implementation of LC devices in several optical quantum studies highlights their adaptability and potential for quantum information processing .