Quantum computing has emerged as a transformational technology with the potential to alter industries ranging from data encryption to drug development. Exploring liquid crystal-based systems, which can potentially improve the scalability and performance of quantum devices, is a promising field of quantum computing research . Liquid crystals, possessing characteristics between those of liquids and solids, exhibit electrical traits that render them attractive for applications in quantum computing. These substances can be engineered to accommodate quantum systems like qubits, which can be influenced and regulated by forces enabling the development of scalable structures for quantum computers . The development of liquid crystal-based quantum computing systems has received significant attention from the research community. Advances in quantum gate operations, error correction, and integration with classical computing infrastructure have resulted in the birth of new paradigms for quantum computing, which have the potential to overcome the limits of classic solid-state or optical qubit systems .