6G时代媒体与通信融合,实现智能感知与生成的全新范式
Media Meets Communication in 6G: Fundamentals, Key Technologies, and Applications

- 构建四维统一框架,融合AI媒体技术与感知无线传输
- 实现语义级联合编解码与动态资源适配,提升传输效率与体验
- 适合关注6G媒体通信、AIGC与智能网络的研究者
第六代移动通信(6G)网络的快速发展正推动媒体智能与通信智能的深度融合,使媒体通信从传统的比特级传输演进为智能化、语义感知与生成的新范式。新兴媒体服务不仅需要高数据速率和低延迟,还需具备语义感知、感知质量保障、自适应资源编排、可信内容处理及个性化媒体生成能力。与此同时,媒体技术正从人工信号处理和传统编码转向由人工智能驱动的表征学习、内容理解与生成重建。本文系统综述了面向6G视觉通信的媒体通信技术,回顾通信与媒体技术的演进历程,厘清媒体内容处理与无线传输之间的内在关联。提出一个包含四个核心维度的统一框架:人工智能驱动的媒体技术、感知媒体的无线传输、大模型赋能的媒体通信以及智能网络基础设施。其中,人工智能驱动的媒体技术涵盖媒体编码、内容理解、质量评估、安全合规检测及AIGC生成;媒体感知的无线传输从三个互补视角展开:语义级源信道联合优化,联合编码任务相关的语义信息;源感知传输优化,利用媒体特性进行信道适应、预测与补偿;信道感知源优化,根据实时信道条件调整媒体编码与重建策略。
原文摘要 · Abstract (English)
The rapid advancement of sixth-generation (6G) networks is accelerating the convergence of media intelligence and communication intelligence, driving media communication beyond conventional bit-level delivery toward intelligent, semantic-aware, and generative paradigms. Emerging media services require not only high data rates and low latency, but also semantic awareness, perceptual quality assurance, adaptive resource orchestration, trustworthy content processing, and personalized media generation. Meanwhile, media technologies are evolving from handcrafted signal processing and conventional coding toward artificial intelligence (AI)-driven representation learning, content understanding, and generative reconstruction. Motivated by these trends, this paper presents a systematic survey of media communication technologies for 6G vision communication by revisiting the evolution of communication and media technologies and clarifying the intrinsic relationship between media content processing and wireless transmission. We introduce a unified framework consisting of four key dimensions: AI-driven media technologies, media-aware wireless transmission, large model-enabled media communication, and intelligent network infrastructures. Specifically, AI-driven media technologies encompass media coding, content understanding, quality assessment, security and compliance detection, and AIGC-enabled media generation, while media-aware wireless transmission is examined from three complementary perspectives: semantic joint source-channel optimization, which jointly encodes task-relevant semantic information; source-aware transmission optimization, which leverages media characteristics for channel adaptation, prediction, and compensation; and channel-aware source optimization, which adapts media coding and reconstruction based on real-time channel conditions.
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