用可解释的逻辑推理提升视觉定位准确率
NAVER: A Neuro-Symbolic Compositional Automaton for Visual Grounding with Explicit Logic Reasoning
- 构建带自校正机制的有限状态自动机,显式处理逻辑推理
- 在多个数据集上超越现有端到端与组合方法,达到最新水平
- 适合需要可解释性与复杂推理的视觉理解场景
视觉定位(VG)任务如指代表达检测与分割对连接视觉实体与上下文至关重要,尤其在需细致查询解析的复杂推理任务中。本文探索超越基础感知的视觉定位,强调需类人认知推理的方法所面临挑战。近年来,大语言模型(LLMs)与视觉语言模型(VLMs)提升了视觉理解、上下文认知与推理能力。现有方法主要分为端到端与组合式两类,后者更具灵活性。虽整合LLMs与基础模型的组合方法表现良好,但在基于语言的逻辑表示复杂推理上仍存局限。为此,本文提出NAVER——一种组合式视觉定位方法,通过在有限状态自动机中嵌入显式概率逻辑推理,并配备自校正机制,增强推理过程的鲁棒性与可解释性。实验表明,NAVER在多个基准上优于近期端到端与组合基线,达到当前最优性能。代码已公开于https://github.com/ControlNet/NAVER。
原文摘要 · Abstract (English)
Visual Grounding (VG) tasks, such as referring expression detection and segmentation tasks are important for linking visual entities to context, especially in complex reasoning tasks that require detailed query interpretation. This paper explores VG beyond basic perception, highlighting challenges for methods that require reasoning like human cognition. Recent advances in large language methods (LLMs) and Vision-Language methods (VLMs) have improved abilities for visual comprehension, contextual understanding, and reasoning. These methods are mainly split into end-to-end and compositional methods, with the latter offering more flexibility. Compositional approaches that integrate LLMs and foundation models show promising performance but still struggle with complex reasoning with language-based logical representations. To address these limitations, we propose NAVER, a compositional visual grounding method that integrates explicit probabilistic logic reasoning within a finite-state automaton, equipped with a self-correcting mechanism. This design improves robustness and interpretability in inference through explicit logic reasoning. Our results show that NAVER achieves SoTA performance comparing to recent end-to-end and compositional baselines. The code is available at https://github.com/ControlNet/NAVER .
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