Another key advantage of liquid crystal-based quantum computing is its ability to seamlessly integrate with conventional semiconductor production processes. LCs are already widely employed in the electronics sector, particularly for display technology. This current infrastructure can be exploited to construct scalable and costeffective quantum computing systems, simplifying uptake and implementation . Liquid crystals' inherent flexibility and tunability make them ideal for quantum computing applications. External stimuli like electric and magnetic fields can accurately control LCs, allowing for precision manipulation of their alignment and, as a result, the quantum states they encode . This exact control is necessary for the coherent manipulation and readout of quantum information, which allows the construction of complicated quantum algorithms . LCs are versatile materials that can be applied in various quantum information processing applications. For example, they can be used in linear optical quantum computing to manipulate quantum states by controlling light polarization. This adaptability extends to the possible construction of new types of quantum logic gates and circuits, increasing the breadth of quantum computing designs . LC devices typically operate at lower voltages than other quantum computing technologies. This low power consumption not only makes them more energy efficient but also minimizes thermal noise, which can interfere with quantum coherence. As a result, LCs can help make quantum computing systems more stable and efficient . Moreover, the ability to accurately control crystals on a scale sets the stage for the advancement of highly scalable quantum computing technology. Using electrodes and various control methods makes it possible to create arrays of liquid crystal qubits that can function individually or in coordination. This scalability is essential for the creation of robust quantum computers that can tackle challenges beyond what traditional systems can handle . Liquid crystals show potential for advancing the development of quantum computing technology. With their characteristics and compatibility with existing technology, they stand out as contenders for creating scalable, effective, and reliable systems for quantum information processing.