MV-Bench: Benchmarking Multimodal Large Language Models for Coordinated Multi-View Interface Construction
Summary
MV-Bench is introduced as the first benchmark for evaluating Multimodal Large Language Models (MLLMs) on coordinated multi-view interface construction, a task demanding joint management of data semantics, multi-view coordination, and interactive logic. Addressing a gap in existing single-chart evaluations, MV-Bench utilizes Tableau workbook files as ground-truth, converting their specifications into 1,048 verified benchmark instances with executable code, rendered interfaces, datasets, and interaction annotations via a multi-stage pipeline. Evaluating five MLLMs (GLM 4.6V, Kimi K2.5, Qwen3.5 Plus, Claude Sonnet 4.5, GPT 5.4) in a single-pass setting, results show the strongest model achieves 75.45% accuracy in visual layout, but only 21.71% on data binding and 11.68% on interaction completeness. This indicates MLLMs struggle with functional aspects despite visual fidelity.
Key takeaway
For AI Scientists and ML Engineers developing MLLM-driven visualization tools, recognize that current models, despite strong visual layout reproduction (up to 75.45%), severely underperform on data binding (21.71%) and interaction completeness (11.68%). You must prioritize training data and evaluation metrics that explicitly address data semantics and cross-view interaction logic. Relying solely on visual fidelity will lead to deploying non-functional, visually deceptive interfaces. Focus on robust functional verification.
Key insights
MLLMs reproduce visual layouts well but fundamentally struggle with data semantics and interactive logic in multi-view interfaces.
Principles
- Visual fidelity is an unreliable proxy for functional correctness.
- Multi-view interfaces demand reasoning about shared state and data flow.
- Data binding and interaction are latent properties, hard to infer visually.
Method
A multi-stage pipeline transforms Tableau workbooks into executable web interfaces via Tableau Structured Specification (TSS) and Code Translation Specification (CTS), with iterative generation and verification.
In practice
- Verify MLLM-generated dashboards via code execution, not just visuals.
- Train MLLMs with interaction-aware strategies for causal structures.
- Utilize MV-Bench for iterative generation feedback.
Topics
- Multimodal LLMs
- Visualization Benchmarking
- Coordinated Multi-View Interfaces
- Data Binding
- Interaction Logic
- Image-to-Code Generation
Best for: Research Scientist, AI Scientist, Machine Learning Engineer, AI Engineer
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Editorial summary, takeaway, and curation by AIssential. Original article published by cs.CV updates on arXiv.org.