Liquid crystals (LCs) are versatile soft condensed matter distinguished by their fluidity and orientational order of rod-shaped organic molecules . This distinguishing feature has established LCs as potential materials in the field of quantum computing, where tunability and control via external fields are critical . The precise adjustment of liquid crystals (LCs) in areas allows for creating intricate and custom architectures for quantum computing components . The natural optical characteristics of LCs make it possible to generate optical phase patterns by controlling the orientation of molecules. This unique feature enables the production of devices with conversion efficiencies exceeding 90%, surpassing those made from solid dielectric materials. The molecular arrangement of LCs is both programmable and editable, providing the capability to dynamically control light with a range of possibilities, which is essential for quantum information processing . Liquid crystals can create structures that react to various environmental cues, such as electric and magnetic fields, temperature variations, and light exposure. These structures enable the adjustment of properties and manipulation of quantum states essential for applications in quantum computing. Due to their modulation of efficient performance, liquid crystals serve as a promising platform for designing quantum gates and circuits that demand swift and precise control over quantum states . The current study into LC-based soft-matter photonics highlights these materials' potential for developing quantum computer capabilities . As programmable alignment techniques and LC superstructures become more advanced, we should expect major advancements in quantum information control and manipulation. This advancement is projected to generate more compact, efficient, and adaptable quantum computing devices capable of meeting the demands of next-generation information technology . In essence, the adjustability and manipulation offered by liquid crystal-based tools using forces offer a promising path for advancing cutting-edge quantum computing technologies. The unique characteristics of LCs not only enhance the effectiveness and operation of elements but also offer a flexible and lively stage for processing quantum information.