In this article, we report, as per our knowledge, for the first time phase change material (PCM) based reconfigurable metasurfaces for tailoring different degrees of freedom (DoF) of the quantum emitter (QE) emission, namely polarization and directionality, two key controlling factors in applications like quantum computing, communication, and chiral optics. We have used the hybrid plasmon-QE coupled bullseye grating system as the basic building block of the structures. Carefully engineered azimuthal width profile of the $mathrmSb_2S_3$/AlGaAs ridge and selectively controlled transition of PCM state provide dynamic control over amplitude and phase of the scattered radiation. Based on this methodology, we have designed five different metasurfaces for on-demand switching of target DoFs of QE emission, ensuring high collection efficiency due to the near-field coupling scheme. The first two metasurfaces switch the majority of the out-going radiation from radially polarized to circularly polarized, whereas the next two switch the direction of circularly polarized out-going radiation by a maximum of 9.23$mathrm^o$ while maintaining the spin state (or polarization chirality) in the simulation environment. The third metasurface is capable of on-demand generation and separation of opposite spin states of out-going radiation by 11.48$mathrm^o$ utilizing the selectively controlled phase transition of $mathrmSb_2S_3$. Such reconfigurable multi-dimensional manipulation of QE radiation has not been investigated previously. This work proves the vast potential of active metasurfaces to modify the DoFs of QE emission, paving the way for high-dimensional quantum sources for high-speed quantum communication, higher dimensional quantum processing, and switchable chiral optics.