Liquid crystal qubits offer a benefit in their material characteristics that enable precise manipulation of quantum states. By customizing crystals to possess electro-optical properties, they become well suited for quantum information processing. The adaptable nature of crystal materials allows for adjustment of qubit configurations, enhancing the control and accuracy in reading quantum states. Moreover, integrating crystal qubits with semiconductor technology presents a scalable and budget-friendly approach to advancing large-scale quantum computing . One of the obstacles in expanding quantum computing systems is effective integration and the direct direction of a significant number of qubits . Superconducting routing platforms have arisen as an answer, enabling the merging of quantum technologies, such as liquid crystal qubits, in a cryogenic setting . By combining these routing platforms with packaging and control systems, scientists aspire to create quantum computers that can address intricate computational challenges