Quantum computing is a game changer in the world of technology, offering the potential to tackle problems that traditional computers struggle with . Unlike computers that rely on bits, quantum computers use qubits that can exist in multiple states simultaneously due to superposition and entanglement principles. This unique capability enables quantum computers to perform calculations more efficiently than classical systems, significantly impacting areas like cryptography, optimization, machine learning, and simulations . Liquid crystals have played a role in shaping technology, especially in the advancement of display technologies. Discovered back in 1888 by the botanist and chemist Friedrich Reinitzer, liquid crystals made an impact with the creation of the liquid crystal display (LCD) by George H. Heilmeier in the 1960s . Since then, these liquid crystals have been pivotal in driving innovations due to their unique properties that combine features of solid crystals and isotropic liquids . Researchers are currently exploring their potential in quantum computing, where their capacity to manipulate light at a quantum level could pave the way for scalable quantum systems . The use of Liquid crystals in quantum computing is motivated by their electro-optical characteristics, which make them well-suited for manipulating photons-an essential aspect in quantum systems. Liquid crystals are highly beneficial for their capacity to manage the polarization states of photons, which is a requirement for optical quantum gates to function. These gates carry out operations on qubits, a process in quantum computing. Moreover, liquid crystals have the ability to adjust phases at extremely low levels of photon counts, aiding in preserving the fragile quantum states of qubits with minimal interference and decoherence-significant hurdles faced by current quantum computing technologies . Liquid crystals offer another benefit in the realm of quantum computing. Their ability to seamlessly integrate with computing materials and substrates. This seamless integration not only proves cost-effective but also paves the way for the creation of yet powerful quantum computing devices, as evidenced in a range of experimental configurations . The capacity to combine liquid crystals with materials opens up avenues for future commercialization and expansion of quantum computing technology.