Preprint
Computer Vision

Vision-Language Synergy Reasoning

Beichen Zhang, Yuhang Zang, Xiao-wen Dong, Yuhang Cao, Haodong Duan, Dahua Lin, Jiaqi Wang
November 19, 2025arXiv.org4 citations

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arXiv.org

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2025

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Abstract

Abstract reasoning from minimal examples remains a core unsolved problem for frontier foundation models such as GPT-5 and Grok 4. These models still fail to infer structured transformation rules from a handful of examples, which is a key hallmark of human intelligence. The Abstraction and Reasoning Corpus for Artificial General Intelligence (ARC-AGI) provides a rigorous testbed for this capability, demanding conceptual rule induction and transfer to novel tasks. Most existing methods treat ARC-AGI as a purely textual reasoning task, overlooking the fact that humans rely heavily on visual abstraction when solving such puzzles. However, our pilot experiments reveal a paradox: naively rendering ARC-AGI grids as images degrades performance due to imprecise rule execution. This leads to our central hypothesis that vision and language possess complementary strengths across distinct reasoning stages: vision supports global pattern abstraction and verification, whereas language specializes in symbolic rule formulation and precise execution. Building on this insight, we introduce two synergistic strategies: (1) Vision-Language Synergy Reasoning (VLSR), which decomposes ARC-AGI into modality-aligned subtasks; and (2) Modality-Switch Self-Correction (MSSC), which leverages vision to verify text-based reasoning for intrinsic error correction. Extensive experiments demonstrate that our approach yields up to a 4.33\% improvement over text-only baselines across diverse flagship models and multiple ARC-AGI tasks. Our findings suggest that unifying visual abstraction with linguistic reasoning is a crucial step toward achieving generalizable, human-like intelligence in future foundation models. Source code is released at https://github.com/InternLM/ARC-VL.

Analysis

Why This Paper Matters

Abstract reasoning from minimal examples remains a core unsolved problem for frontier foundation models like GPT-5 and Grok 4. The Abstraction and Reasoning Corpus for Artificial General Intelligence (ARC-AGI) is a rigorous testbed that demands conceptual rule induction and transfer to novel tasks. Most existing methods treat ARC-AGI as a purely textual reasoning task, overlooking the fact that humans rely heavily on visual abstraction when solving such puzzles. This paper addresses a critical gap by showing that vision and language possess complementary strengths across distinct reasoning stages: vision supports global pattern abstraction and verification, whereas language specializes in symbolic rule formulation and precise execution.

Technical Contributions

The paper introduces two synergistic strategies:

  • Vision-Language Synergy Reasoning (VLSR): Decomposes ARC-AGI into modality-aligned subtasks, leveraging vision for pattern abstraction and language for rule execution.
  • Modality-Switch Self-Correction (MSSC): Uses vision to verify text-based reasoning for intrinsic error correction, addressing the paradox that naively rendering grids as images degrades performance.
  • Empirical validation: Demonstrates up to 4.33% improvement over text-only baselines across diverse flagship models and multiple ARC-AGI tasks.
  • Open-source release: Code is available at https://github.com/InternLM/ARC-VL.

Results

The approach yields up to a 4.33% improvement over text-only baselines across diverse flagship models (e.g., GPT-5, Grok 4) on multiple ARC-AGI tasks. The paper does not report absolute performance on the ARC-AGI leaderboard or provide detailed per-task breakdowns, but the relative improvement is consistent across models.

Significance

This work suggests that unifying visual abstraction with linguistic reasoning is a crucial step toward achieving generalizable, human-like intelligence in future foundation models. By providing a practical framework for multimodal reasoning on ARC-AGI, it opens new avenues for improving abstract reasoning in AI systems. The release of source code facilitates further research and reproducibility.