用语言中心框架提升遥感图像智能解读能力
Remote Sensing Image Intelligent Interpretation with the Language-Centered Perspective: Principles, Methods and Challenges
- 以大语言模型为认知中枢,融合视觉、任务、知识与行为空间
- 构建类脑全局工作空间机制,实现多模态统一理解与决策
- 适合遥感认知计算、智能地理分析方向研究者参考
遥感图像解读长期依赖视觉中心模型,受限于多模态推理、语义抽象与交互决策。尽管大语言模型(LLMs)已引入遥感流程,但现有研究多聚焦下游应用,缺乏解释语言认知作用的统一理论框架。本文倡导从视觉中心向语言中心范式转变,借鉴人类认知的全局工作空间理论(GWT),提出以LLM为核心的认知枢纽,整合感知、任务、知识与行动空间,实现统一理解、推理与决策。系统梳理了统一多模态表征、知识关联、推理决策等核心挑战,构建了基于全局工作空间的解读机制,并探讨语言中心方案如何应对各挑战。最后从多模态数据自适应对齐、动态知识约束下的任务理解、可信推理及自主交互四方面展望未来研究方向。本工作旨在为下一代遥感智能系统提供概念基础与认知驱动的分析路线图。
原文摘要 · Abstract (English)
The mainstream paradigm of remote sensing image interpretation has long been dominated by vision-centered models, which rely on visual features for semantic understanding. However, these models face inherent limitations in handling multi-modal reasoning, semantic abstraction, and interactive decision-making. While recent advances have introduced Large Language Models (LLMs) into remote sensing workflows, existing studies primarily focus on downstream applications, lacking a unified theoretical framework that explains the cognitive role of language. This review advocates a paradigm shift from vision-centered to language-centered remote sensing interpretation. Drawing inspiration from the Global Workspace Theory (GWT) of human cognition, We propose a language-centered framework for remote sensing interpretation that treats LLMs as the cognitive central hub integrating perceptual, task, knowledge and action spaces to enable unified understanding, reasoning, and decision-making. We first explore the potential of LLMs as the central cognitive component in remote sensing interpretation, and then summarize core technical challenges, including unified multimodal representation, knowledge association, and reasoning and decision-making. Furthermore, we construct a global workspace-driven interpretation mechanism and review how language-centered solutions address each challenge. Finally, we outline future research directions from four perspectives: adaptive alignment of multimodal data, task understanding under dynamic knowledge constraints, trustworthy reasoning, and autonomous interaction. This work aims to provide a conceptual foundation for the next generation of remote sensing interpretation systems and establish a roadmap toward cognition-driven intelligent geospatial analysis.
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