TY - JOUR
T1 - Rydberg Atomic Receivers for Net-Zero 6G Wireless Communication and Sensing
T2 - Progress, Experiments, and Sustainable Prospects
AU - Tao, Yi
AU - Gao, Zhen
AU - Zhu, Zhiao
AU - Mi, De
AU - Wu, Zhonghuai
AU - Zhang, Zijian
AU - Zhang, Fusang
AU - Zheng, Dezhi
AU - Chen, Sheng
N1 - Publisher Copyright:
© 1979-2012 IEEE.
PY - 2026
Y1 - 2026
N2 - Against the backdrop of the global drive to advance the green transformation of the information and communications technology (ICT) industry and leverage technological innovation to facilitate the achievement of Net-Zero carbon goals, research into Rydberg atomic receivers (RAREs) is gaining significant interest. RAREs leverage the electron transition phenomenon for signal reception, offering significant advantages over conventional radio frequency receivers in terms of miniaturized antenna design, high sensitivity, robust interference resistance, and compact form factors, which positions them as a competitive alternative for meeting zero-carbon communication demands. This article systematically elaborates on the basic principle, stateof- the-art progress, and novel experiments of RAREs in quantum wireless communication and sensing. In this first-of-its-kind work, we experimentally verify the RARE-based orthogonal frequency division multiplexing transmission and reveal the potential of deep learning design in optimizing quantum wireless systems. Finally, we delve into the prospect of integrating RARE with existing cutting-edge application scenarios, while mapping out critical pathways for developing Rydberg-based wireless systems.
AB - Against the backdrop of the global drive to advance the green transformation of the information and communications technology (ICT) industry and leverage technological innovation to facilitate the achievement of Net-Zero carbon goals, research into Rydberg atomic receivers (RAREs) is gaining significant interest. RAREs leverage the electron transition phenomenon for signal reception, offering significant advantages over conventional radio frequency receivers in terms of miniaturized antenna design, high sensitivity, robust interference resistance, and compact form factors, which positions them as a competitive alternative for meeting zero-carbon communication demands. This article systematically elaborates on the basic principle, stateof- the-art progress, and novel experiments of RAREs in quantum wireless communication and sensing. In this first-of-its-kind work, we experimentally verify the RARE-based orthogonal frequency division multiplexing transmission and reveal the potential of deep learning design in optimizing quantum wireless systems. Finally, we delve into the prospect of integrating RARE with existing cutting-edge application scenarios, while mapping out critical pathways for developing Rydberg-based wireless systems.
UR - https://www.scopus.com/pages/publications/105039639459
U2 - 10.1109/MCOM.001.2500610
DO - 10.1109/MCOM.001.2500610
M3 - Article
AN - SCOPUS:105039639459
SN - 0163-6804
JO - IEEE Communications Magazine
JF - IEEE Communications Magazine
ER -