R1-Onevision: Advancing Generalized Multimodal Reasoning through Cross-Modal Formalization

This paper presents a new model called R1-Onevision that helps computers understand and reason about images and text together. It aims to improve how machines can think about complex problems that involve both visual and written information.

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This article and its accompanying video are automated summaries derived from R1-Onevision: Advancing Generalized Multimodal Reasoning through Cross-Modal Formalization by Yi Yang, Xiaoxuan He, Hongkun Pan, Xiyan Jiang, Yan Deng, Xingtao Yang, Haoyu Lu, Dacheng Yin, Fengyun Rao, Minfeng Zhu, Bo Zhang, Wei Chen. The original research was conducted solely by the paper's authors; PDFdigest did not conduct any of the research and makes no claims of ownership over the underlying scientific work.

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Key Takeaways
  1. 1 While some more challenging datasets, like HumanEval-V , Humanity's Last Exam , and ZeroBench , aim to assess complex diagram understanding or broader knowledge proficiency.
  2. 2 Third, to evaluate multimodal reasoning model, we introduce R1-Onevision-Bench, a comprehensive benchmark explicitly designed to evaluate "grade-level" reason-ing performance across scientific domains in the human educational system: mathematics, physics, chemistry, biology, and logical deduction.
  3. 3 Based on LLaVA-CoT, LlamaV-o1 introduces a multi-step curriculum learning approach, where tasks are progressively organized to facilitate incremental skill acquisition and problem-solving.
  4. 4 With the advancement of model capabilities in visual reasoning, an increasing number of studies have proposed various benchmarks to evaluate the reasoning abilities of these models .

Introduction

Thus, the number of different ways Cynthia can paint the figure is . So, there are 2 choices for this circle. -2 choices for the second circle.

2 choices for the third circle.2 choices for the fourth circle.

48 Question: Cynthia paints each region of the figure in a single color: red, blue or yellow.

Important Note

To address this limitation, we propose a Role-Playing strategy that emulates human-like visual comprehension.

Important Note

However, these benchmarks remain specialized, covering only limited aspects of reasoning.

Research Question

While some more challenging datasets, like HumanEval-V , Humanity’s Last Exam , and ZeroBench , aim to assess complex diagram understanding or broader knowledge proficiency.

Methodology

This method involves iteratively revisiting the image, refining its understanding, and enhancing the fidelity of the reasoning process. Additionally, Section 5.3 provides an in-depth analysis of the areas where these models exhibit weaknesses, identifying specific challenges and limitations that hinder their effectiveness.

Study Design

Finally, Section 5.4 conducts a systematic analysis to evaluate the importance of various components during the training process.

We adopt Qwen2.5-VL series as baseline models, and conduct experiments on baselines 3B and 7B to examine the effectiveness of our method.

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Results & Findings

However, multimodal reasoning, which requires integrating visual and textual information, remains a significant challenge. Existing visual-language models often struggle to effectively analyze and reason visual content, resulting in suboptimal performance on complex reasoning tasks.

  • However, multimodal reasoning, which requires integrating visual and textual information, remains a significant challenge.
  • Existing visual-language models often struggle to effectively analyze and reason visual content, resulting in suboptimal performance on complex reasoning tasks.
  • In this paper, we introduce R1-Onevision, a multimodal reasoning model designed to bridge the gap between visual perception and deep reasoning.
  • To achieve this, we propose a cross-modal reasoning pipeline that transforms images into formal textural representations, enabling precise language-based reasoning.
  • We further develop the R1-Onevision model through supervised fine-tuning and reinforcement learning.
Important Note

The RL stage further encourages the model to generate reliable outputs and enhances the generalizability of the model.

Important Note

Some approaches, such as LLava-CoT and Llama-V-o1 , employ a predefined thinking structure to constrain the model’s reasoning process, limiting its robustness and creative potential. While such structured templates improve consistency, they often lead to shallow reasoning with limited comprehension.

Practical Applications

Consequently, these models may fail to generalize beyond their training distributions. Bromination typically involves adding bromine atoms, which might form a new compound.

Related Work

This section reviews existing multimodal large language models and their capabilities, noting the limitations of current approaches in visual reasoning and the lack of comprehensive benchmarks for evaluation.

R1-Onevision Dataset

The R1-Onevision dataset is described as a resource providing step-by-step multimodal reasoning annotations, which is crucial for training and evaluating multimodal reasoning models.

Source Paper Figures and Captions

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figure is:
figure is:
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Figure 1. Comparison of baseline models and R1-Onevision. Deepseek-R1 struggles with perception errors due to GPT-4o's incomplete image description and Qwen2.5-VL lacks the necessary reasoning ability to solve the problem. In contrast, R1-Onevision accurately interprets the image, applies structured reasoning, and arrives at the correct solution.
Figure 1. Comparison of baseline models and R1-Onevision. Deepseek-R1 struggles with perception errors due to GPT-4o's incomplete image description and Qwen2.5-VL lacks the necessary reasoning ability to solve the problem. In contrast, R1-Onevision accurately interprets the image, applies structured reasoning, and arrives at the correct solution.
Source-paper figure
Figure 2. Overview of our R1-Onevision framework. The cross-modal reasoning pipeline begins with data preparation, integrating visual formal descriptions to enhance reasoning. We employ role-playing strategies to generate the R1-Onevision dataset with high-quality reasoning data. Post-training consists of supervised fine-Tuning to learn reasoning manner, followed by rule-based Reinforcement Learning to improve generalization across multimodal tasks.
Figure 2. Overview of our R1-Onevision framework. The cross-modal reasoning pipeline begins with data preparation, integrating visual formal descriptions to enhance reasoning. We employ role-playing strategies to generate the R1-Onevision dataset with high-quality reasoning data. Post-training consists of supervised fine-Tuning to learn reasoning manner, followed by rule-based Reinforcement Learning to improve generalization across multimodal tasks.
Source-paper figure
Figure 3. The data distribution of R1-Onevision dataset. R1-Onevision consists of 155k data, including Science, Math, General and Doc/Chart/Screen.
Figure 3. The data distribution of R1-Onevision dataset. R1-Onevision consists of 155k data, including Science, Math, General and Doc/Chart/Screen.
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Figure 4. Overview of R1-Onevision-Bench. R1-Onevision-Bench comprises 38 subcategories organized into 5 major domains, including Math, Biology, Chemistry, Physics, Deducation. Additionally, the tasks are categorized into five levels of difficulty, ranging from 'Junior High School' to 'Social Test' challenges, ensuring a comprehensive evaluation of model capabilities across varying complexities.
Figure 4. Overview of R1-Onevision-Bench. R1-Onevision-Bench comprises 38 subcategories organized into 5 major domains, including Math, Biology, Chemistry, Physics, Deducation. Additionally, the tasks are categorized into five levels of difficulty, ranging from 'Junior High School' to 'Social Test' challenges, ensuring a comprehensive evaluation of model capabilities across varying complexities.
Source-paper figure
figure, the capacitances , , and are known, and the capacitance is adjustable. What is the value of when it is adjusted so that the potentials at points A and B are equal? Answer:
figure, the capacitances , , and are known, and the capacitance is adjustable. What is the value of when it is adjusted so that the potentials at points A and B are equal? Answer:
Source-paper figure
Figure 10. Formal Description of print, handwrite.
Figure 10. Formal Description of print, handwrite.
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Figure 11. Formal Description of Math.
Figure 11. Formal Description of Math.
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Figure 12. Formal Description of MEME.
Figure 12. Formal Description of MEME.
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Figure 13. The model displays an adeptness in processing math.
Figure 13. The model displays an adeptness in processing math.
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Figure14. The model displays an adeptness in processing physcis.
Figure14. The model displays an adeptness in processing physcis.
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Figure 15. The model displays an adeptness in processing chemistry.
Figure 15. The model displays an adeptness in processing chemistry.
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For the 3-seater: \( 2A + 3S = 220 \) 2. For the 2-seater: \( 2A + 2S = 160 \) We can solve these equations to find \( A \) and \( S \). Subtract the second equation from the first: \[ (2A + 3S) -(2A + 2S) = 220 -160 \] \[ S = 60 \] Now, substitute \( S = 60 \) back into the second equation: \[ 2A + 2(60) = 160 \] \[ 2A + 120 = 160 \] \[ 2A = 40 \] \[ A = 20 \] Now, we can find the width of the 1-seater sofa: \[ 2A + S = 2(20) + 60 = 40 + 60 = 100 \text{ cm} \]
For the 3-seater: \( 2A + 3S = 220 \) 2. For the 2-seater: \( 2A + 2S = 160 \) We can solve these equations to find \( A \) and \( S \). Subtract the second equation from the first: \[ (2A + 3S) -(2A + 2S) = 220 -160 \] \[ S = 60 \] Now, substitute \( S = 60 \) back into the second equation: \[ 2A + 2(60) = 160 \] \[ 2A + 120 = 160 \] \[ 2A = 40 \] \[ A = 20 \] Now, we can find the width of the 1-seater sofa: \[ 2A + S = 2(20) + 60 = 40 + 60 = 100 \text{ cm} \]
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Figure19. The model displays an adeptness in processing physical optics.
Figure19. The model displays an adeptness in processing physical optics.
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The model displays an adeptness in processing math geometry.Problem ResponseQuestion: It is known that BC parallel PQ, AB:AP = 2.0:5.0, thenthe length of CQ is (
The model displays an adeptness in processing math geometry.Problem ResponseQuestion: It is known that BC parallel PQ, AB:AP = 2.0:5.0, thenthe length of CQ is (
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Frequently Asked Questions

Given that there are three colors and each circle must be a different color from its neighbors, the number of ways to color the circles is the number of permutations of the three colors. While some more challenging datasets, like HumanEval-V .

This method involves iteratively revisiting the image, refining its understanding, and enhancing the fidelity of the reasoning process. Finally, Section 5.4 conducts a systematic analysis to evaluate the importance of various components during the training process.

Third, to evaluate multimodal reasoning model, we introduce R1-Onevision-Bench, a comprehensive benchmark explicitly designed to evaluate “grade-level” reason-ing performance across scientific domains in the human educational system: mathematics, physics, chemistry, biology, and logical deduction. Based on LLaVA-CoT, LlamaV-o1 introduces a multi-step curriculum.

Therefore, the number of different ways Cynthia can paint the figure is 6. the figure is 6. To further maintain closeness to the reference distribution, a KL divergence penalty (weighted by β) is added, yielding the overall loss:.

Some approaches, such as LLava-CoT and Llama-V-o1 , employ a predefined thinking structure to constrain the model’s reasoning process, limiting its robustness and creative potential. While such structured templates improve consistency, they often lead to shallow reasoning with limited comprehension. The RL.

This paper presents a new model called R1-Onevision that helps computers understand and reason about images and text together. It aims to improve how machines can think about complex problems that involve both visual and written information.

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