As quantum computing continues to push the boundaries of traditional computational models, researchers have increasingly resorted to liquid crystals' unique features to overcome the inherent hurdles of the quantum realm. In this review, we will look at the key benefits of using liquid crystals in designing and optimizing quantum computing systems. Quantum computing has garnered interest due to its capacity to tackle problems beyond the reach of conventional computers [41]. Yet the real-world deployment of quantum computing systems faces hurdles like the nature of quantum states and the challenges of ensuring quantum control . With their different molecular structures and sensitive activity, liquid crystals present a possible answer to these problems . One of the fundamental benefits of employing liquid crystals in quantum computing is their ability to preserve and modify quantum states better than standard materials. Liquid crystals have unique qualities such as spontaneous organization, self-assembly, and sensitivity to external stimuli, which can be used to build stable and controllable quantum systems . LCs (Liquid crystals) can have resilient topological defect structures resistant to external perturbations. These flaws, which may be precisely manipulated and controlled, are reliable carriers of quantum information. LCs' resistance against disturbances makes them a good alternative for stable quantum computing activities, decreasing the error rates often associated with quantum state decoherence .