光电融合集成与通信感知技术OA
Multiplex Integration of Photonics&Electronics and Applications in Communication&Sensing
随着宽带通信、人工智能以及卫星互联网等领域的快速发展,全球数据流量呈指数级增长,传统电子集成技术面临带宽、功耗与延迟的物理瓶颈.光电融合集成技术通过"材料—器件—芯片—系统"全尺度的多维协同,突破电子技术在带宽、功耗的瓶颈,成为支撑下一代信息技术发展的关键使能技术.本文系统综述光电融合集成技术的最新研究进展,首先阐述其概念内涵与发展趋势,探讨从链路系统到芯片级的精准仿真技术,并重点分析异质集成工艺、核心器件与系统级芯片的研究现状,进而深入讨论光电融合在高速通信与智能感知领域的应用,最后展望面向空天地一体化网络与 AI算力集群的发展趋势,指出需攻克多物理场耦合极限、跨尺度制造一致性与智能化适配三大核心挑战,并提出分阶段突破路径,为 6G 全域覆盖与算力网络可持续发展提供战略参考.
Driven by the rapid advancement of broadband communications,artificial intelligence,and satellite internet,global data traffic is growing exponentially,while conventional electronic integration is approaching physical limits in bandwidth,power consumption,and latency.Photonics-electronics multiplex integration,leveraging multi-dimensional synergy across the full hierarchy from materials and devices to chips and systems,transcends the bandwidth and power constraints of all-electronic architectures and is emerging as a key enabling technology for next-generation information systems.A systematic review of recent advances in photonics-electronics multiplex integration was presented.Its conceptual framework and developmental trends were first delineated,followed by a survey of high-fidelity simulation technologies that bridge link-level systems and chip-scale implementations,with particular emphasis on the state of the art in heterogeneous integration processes,core devices,and system-on-chip architectures.Representative applications in high-speed communications and intelligent sensing were subsequently examined,followed by a forward-looking discussion of future trajectories toward space,air,and ground integrated networks and AI computing clusters.Three grand challenges that must be addressed were further identified,namely the limits of multi-physics coupling,cross-scale manufacturing consistency,and intelligent adaptive control,and a phased breakthrough roadmap was proposed.These offer strategic insights for ubiquitous 6G coverage and the sustainable evolution of computing networks.
闫连山;邹喜华;潘炜;祝宁华;谢小军;陈建平;周林杰;裴丽;延凤平;岳洋;叶佳;邓雄
西南交通大学光电融合集成与通信感知教育部重点实验室,四川 成都 611752西南交通大学光电融合集成与通信感知教育部重点实验室,四川 成都 611752西南交通大学光电融合集成与通信感知教育部重点实验室,四川 成都 611752南开大学智能光子研究院,天津 300350西南交通大学光电融合集成与通信感知教育部重点实验室,四川 成都 611752上海交通大学光子传输与通信全国重点实验室,上海 200240上海交通大学光子传输与通信全国重点实验室,上海 200240北京交通大学全光网络与现代通信网教育部重点实验室,北京 100044北京交通大学全光网络与现代通信网教育部重点实验室,北京 100044西安交通大学信息与通信工程学院,陕西 西安 710049西南交通大学光电融合集成与通信感知教育部重点实验室,四川 成都 611752西南交通大学光电融合集成与通信感知教育部重点实验室,四川 成都 611752
信息技术与安全科学
光电融合集成通信感知一体化光电集成芯片
photonics-electronics multiplex integrationcommunication-sensing convergenceoptoelectronic integrated chip
《西南交通大学学报》 2026 (3)
806-832,27
国家重点研发计划(2019YFB1803500,2019YFB2203200,2021YFB2800900,2021YFB2801300,2022YFB2803800,2023YFB2804900,2024YFE0212100)国家自然科学基金项目(61335005,6243000320,62431024,U21A20507,U22A2089,U23A20376,U25A20524)
评论