应我校电子与信息工程学院孟维晓教授、陈舒怡副教授邀请，在《AI与6G融合理论与技术》高端外国专家引进计划项目的资助下，在电信学院青年教师联合会、金宝搏app官网下载金宝搏188手机登录网站部、IEEE ComSoc哈尔滨分会的共同支持下，IEEE Fellow、南洋理工大学研究生院助理院长Yuen Chau教授将来我校工作。学术讲座和研究指导将于2026年7月14日至16日在金宝搏app官网下载科学园科技创新大厦（TIB）J507举行。Yuen Chau教授将围绕3D智能超表面及其应用以及里德堡原子量子辅助的无线通信与感知问题，深入剖析其面临的挑战及关键技术，内容涵盖最新研究成果及未来发展趋势，具有很高的学术价值和启发性。此次讲座内容丰富，面向我校师生开放，诚挚邀请对3D智能超表面和无线通信与感知领域感兴趣的老师和同学们积极参与。
讲座信息
报告1：3D Intelligent Metasurfaces and Their Applications
报告时间：2026年7月14日9:00-12:00
摘要: In this talk, we will introduce two innovative types of 3D intelligent metasurfaces: Stacked Intelligent Metasurfaces (SIM) and Flexible Intelligent Metasurfaces (FIM). We will explore their exciting applications in wireless communication and sensing systems. Specifically, SIM is a groundbreaking computing architecture that enables joint signal processing and communication in the electromagnetic (EM) domain. A SIM is fabricated by stacking an array of programmable metasurface layers, where each layer consists of many low-cost passive meta-atoms that can individually manipulate EM waves. By appropriately configuring the passive meta-atoms, a SIM can automatically accomplish advanced computation tasks as the EM wave propagates through it while reducing both energy consumption and processing delay. By contrast, an FIM takes a different approach to leverage the 3D physical space. An FIM is composed of an array of low-cost radiating elements, each of which can independently radiate electromagnetic signals while flexibly adjusting its position along the direction perpendicular to the surface. Hence, unlike conventional rigid 2D antenna arrays, the FIM surface shape may be dynamically reconfigured to improve the channel quality by beneficial 3D morphing.
报告2：Rydberg Atomic Quantum Receiver (RAQR) Aided Wireless Communications and Sensing
报告时间：2026年7月15日9:00-12:00
摘要: Rydberg atomic quantum receivers (RAQRs) emerge as a radical solution for detecting radio frequency (RF) signals, showing great potential in assisting classical wireless communications and sensing. However, the current studies of RAQRs mainly focus on realizing fundamental functionalities via experiments, where the results are indirect in assisting wireless communications and sensing. Moreover, the advantage of RAQR based wireless receivers have not fully unveiled. To fill the gap, we introduce the superheterodyne of RAQRs to the wireless systems by presenting an end-to-end transmission scheme. We then develop a corresponding end-to-end equivalent baseband signal model based on a realistic transmission flow. Our scheme and model provide an explicit design guidance to RAQR-aided wireless systems, and allow various signal processing in an easy-to-handle way.
研究指导：研究生学术报告与交流指导
指导时间：2026年7月16日9:00-12:00
摘要：首先研究生围绕学位论文研究进展或阶段性成果进行学术报告，随后由Yuen Chau教授进行点评指导。
报告人简介：
Yuen Chau received the B.Eng. and Ph.D. degrees from Nanyang Technological University, Singapore, in 2000 and 2004, respectively. Since 2023, he has been with the School of Electrical and Electronic Engineering, Nanyang Technological University. Dr. Yuen received IEEE Communications Society Leonard G. Abraham Prize (2024), IEEE Communications Society Best Tutorial Paper Award (2024), IEEE Communications Society Fred W. Ellersick Prize (2023), IEEE Marconi Prize Paper Award in Wireless Communications (2021), IEEE APB Outstanding Paper Award (2023), and EURASIP Best Paper Award for JOURNAL ON WIRELESS COMMUNICATIONS AND NETWORKING (2021). He is an IEEE Fellow and also a Highly Cited Researcher by Clarivate Web of Science.
