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This book offers a deep dive into quantum teleportation and immune noise models, providing cutting-edge solutions to challenges in noisy quantum communication systems. It covers advanced theories and practical methods for building robust, high-fidelity quantum channels that ensure secure communication even in noisy environments, making it a vital resource for researchers and professionals in quantum information science. Key topics include quantum teleportation protocols, immune noise models, quantum information splitting, and multi-degree-of-freedom quantum teleportation. By developing a unified framework for high-fidelity quantum channels, the book tackles major issues like "entanglement death," decoherence, and channel capacity limitations. It offers solutions to improve quantum state fidelity, channel performance, and security, enhancing the practicality of quantum teleportation in areas like national defense, finance, and secure communication. The book targets academic researchers, engineers, and professionals in quantum information, cryptography, and secure communications, along with advanced students interested in quantum teleportation in noisy environments.
List of contents
Chapter 1. Introduction.- Chapter 2. Theoretical basis.- Chapter 3. Construction of a framework for high fidelity entangled quantum teleportation channel.- Chapter 4. Quantum information splitting of Bell states and arbitrary states in different channels.- Chapter 5. Controllable multiple degree of freedom quantum teleportation protocol for immune noise.- Chapter 6. Application of fault-tolerant quantum teleportation in noisy channel.- Chapter 7. Summary and Outlook.
About the author
Dr. Dongfen Li is a Distinguished Professor and Vice Dean at the School of Computer Science and Network Security at Chengdu University of Technology. In addition to these roles, she is also the Vice President of both the Sichuan Artificial Intelligence Society and the Sichuan Cyberspace Security Association. Dr. Li has been recognised as one of the most influential figures in the 2023 Chengdu Software City Initiative and serves as a reviewer for the National Natural Science Foundation of China. Her accolades include the First Prize in the inaugural "National Cybersecurity Award," the ACM Chengdu Chapter Outstanding Doctoral Dissertation Award and Rising Star Award, and the Sichuan Provincial Science and Technology Progress Third Prize. Dr. Li obtained her Ph.D. in engineering from the University of Electronic Science and Technology of China in June 2017 and joined Chengdu University of Technology in September of the same year. Her research interests primarily lie in the fields of information security, mobile internet security, and quantum cryptography, and she has published extensively, with over 50 SCI-indexed academic papers to her name. In addition, she holds more than 10 invention patents, and her students have achieved over 30 national and regional awards in prestigious competitions under her mentorship.
Summary
This book offers a deep dive into quantum teleportation and immune noise models, providing cutting-edge solutions to challenges in noisy quantum communication systems. It covers advanced theories and practical methods for building robust, high-fidelity quantum channels that ensure secure communication even in noisy environments, making it a vital resource for researchers and professionals in quantum information science. Key topics include quantum teleportation protocols, immune noise models, quantum information splitting, and multi-degree-of-freedom quantum teleportation. By developing a unified framework for high-fidelity quantum channels, the book tackles major issues like "entanglement death," decoherence, and channel capacity limitations. It offers solutions to improve quantum state fidelity, channel performance, and security, enhancing the practicality of quantum teleportation in areas like national defense, finance, and secure communication. The book targets academic researchers, engineers, and professionals in quantum information, cryptography, and secure communications, along with advanced students interested in quantum teleportation in noisy environments.
