将长篇专业文本转为逻辑清晰、美观的SVG图表,提升信息传达效率。
GVR-Coder: A Visual-Feedback Framework for Structured SVG Generation in Complex Document and Meeting Scenarios

- 通过课程式拒收采样提升模型对复杂结构的理解能力。
- 引入双渲染反馈强化学习,同时优化结构与视觉美感。
- 构建生成-验证-修复循环,实现精细纠错与质量提升。
在专业文档撰写与会议评审等高要求场景中,冗长文本易造成认知负担。为提升信息传递效率,将复杂文本转化为逻辑清晰的图表至关重要。可缩放矢量图形(SVG)因其可编辑性与分辨率无关性,是理想表达形式。然而现有文本到SVG生成研究面临三大挑战:(1)缺乏面向复杂逻辑图表的大规模数据集;(2)缺少显式布局先验,导致空间排布混乱;(3)缺乏细粒度视觉反馈以验证输出并修正美学缺陷。为此,我们在数据层面提出DocMeetSVG-100K,一个专为文档撰写与会议评审设计的大型SVG数据集;在模型层面,提出GVR-Coder框架,从长篇专业文本生成高质量逻辑图表。具体而言,采用课程式拒收采样微调,逐步增强模型对复杂结构的建模能力,并在训练中显式融入布局约束知识。此外,引入双重渲染反馈的强化学习机制,通过奖励信号隐式优化结构复杂度与视觉美感。进一步设计生成-验证-修复代理循环,通过显式、细粒度反馈与针对性修正提升生成质量。大量实验表明,GVR-Coder显著优于基线方法,能稳定生成逻辑连贯且视觉美观的图表。代码与数据已公开于https://github.com/CurryaNa/GVR-Coder。
原文摘要 · Abstract (English)
In demanding professional environments and meeting review scenarios, lengthy text often imposes a high cognitive load. To facilitate efficient information communication, transforming verbose text into logically clear diagrams is essential. Scalable Vector Graphics (SVG) provide an effective representation for this purpose due to their editability and resolution independence. However, current research on Text-to-SVG generation remains hindered by three major challenges: (1) the scarcity of datasets for complex, logic-rich diagrams; (2) the absence of explicit layout priors, which leads to chaotic spatial arrangements; and (3) the lack of fine-grained visual feedback to validate rendered outputs and correct aesthetic defects. To address these challenges, at the data level, we introduce DocMeetSVG-100K, a large-scale SVG dataset tailored for document authoring and meeting review scenarios. At the model level, we propose GVR-Coder, a novel framework designed to generate high-quality logical diagrams from lengthy professional texts. Specifically, we adopt a curriculum-driven rejection sampling fine-tuning to progressively enhance the model's capability in modeling complex structures, while explicitly incorporating layout constraint knowledge during training. In addition, we introduce reinforcement learning from dual rendering feedback, a mechanism that provides implicit feedback through reward signals to jointly optimize structural complexity and visual aesthetics. Furthermore, we design a generate-verify-repair agent loop, which improves generation quality through explicit, fine-grained feedback and targeted refinement. Extensive experiments demonstrate that GVR-Coder outperforms competitive baselines and reliably produces logically coherent and visually appealing diagrams. Code and data are available at https://github.com/CurryaNa/GVR-Coder.
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