Studies have shown that when quantum dots (QDs) are paired with Liquid crystals (LCs), they can display distinct quantum characteristics that are beneficial for various purposes, like generating single photons and producing circularly polarized luminescence (CPL) . This review also explores how liquid crystals and quantum dots are combined, focusing on how this affects quantum systems. Quantum dots are semiconductor crystals with properties such as distinct energy levels and optical characteristics that vary based on their size. When paired with liquid crystals, they form systems that merge the adjustability of LCs with the quantum traits of QDs . Recent studies discovered that by adding quantum dots to blue phase liquid crystal elastomers (BPLCEs), they were able to create color-changing circularly polarized light (CPL) effects . Unlike liquid crystal elastomers (CLCEs), BPLCEs, with their 3D cubic superstructure, exhibit opposing CPL signals independent of photonic bandgaps (PBG). This configuration allows for high luminescence dissymmetry factors (glum), which is ideal for counterfeiting applications. Moreover, liquid crystal polymers have shown responsiveness to stimuli like temperature, pH, and electric fields. By leveraging this responsiveness in quantum systems, researchers can develop materials with valuable characteristics for applications such as information storage and anti-counterfeiting measures. It is also worth noting that producing QD-doped LC films requires photopolymerization and precise control over QD distribution inside the LC matrix. This approach assures uniform dispersion of QDs, which is critical for achieving consistent optical characteristics and high-performance quantum systems. Combining liquid crystals and quantum dots is a potential approach to creating Tunable and responsive quantum systems. These hybrid materials' increased optical characteristics and stimulus-responsive behavior hold great promise for advances in quantum information technology. Future research should focus on improving integration techniques and investigating novel applications in quantum communication, encryption, and optical storage.