This chapter introduces an advanced multi-degree of freedom quantum teleportation protocol that is inherently resistant to noise, aiming to overcome the inefficiencies and prohibitively high costs associated with conventional quantum teleportation protocols. The proposed protocol capitalizes on the unique properties of spin-orbit angular momentum and hyperentangled Bell states, facilitating the teleportation of quantum information across a diverse range of quantum states. Through a detailed analysis of the distribution of multi-degree of freedom requirements across the dimensions of time, space, and frequency, the protocol is optimized by integrating high-brightness entangled sources and performing super Bell state measurements. These innovations are key to ensuring the protocol’s resilience in noisy environments. Additionally, a robust and controllable identity authentication model is developed to further reinforce the reliability of the teleportation process, particularly in scenarios involving both independent and shared noise environments. The chapter concludes with a comprehensive evaluation of the protocol’s efficiency, based on both fidelity and average fidelity, providing compelling evidence of its viability and potential for real-world applications in quantum communication and beyond.