- The paper introduces LiveXiv, a fully automated live benchmark that generates high-quality VQA and TQA pairs to overcome static data contamination.
- It utilizes advanced methods like DeepSearch for data extraction and GPT-4o for question generation, ensuring diverse and precise multi-modal evaluation.
- Evaluations on 17 large multi-modal models reveal significant performance insights, underscoring LiveXiv’s potential to set new standards in AI model assessment.
Overview of "LiveXiv - A Multi-Modal Live Benchmark Based on Arxiv Papers Content"
The paper introduces LiveXiv, a dynamic and automated multi-modal benchmark constructed from the content of scientific papers on the ArXiv platform. The proposed benchmark is a response to the challenges posed by traditional static benchmarks, which can suffer from test data contamination and fail to reflect the true capabilities of Large Multi-modal Models (LMMs). LiveXiv addresses these issues by continuously updating and expanding its dataset with new, uncontaminated data sourced directly from ArXiv, ensuring robust evaluation of LMMs without the interference of training data overlap.
Methodology
The creation of LiveXiv is fully automated, eliminating the need for human intervention. This process begins with the collection of scientific manuscripts from ArXiv, specifically those that have non-exclusive licenses for distribution, spanning multiple domains such as computer science, electrical engineering, and quantitative biology. The key steps involved are:
- Data Acquisition and Pre-processing: Utilizing the DeepSearch toolkit, the content of the papers is parsed to extract figures, tables, and associated metadata. This forms the foundation for generating question-answer pairs.
- VQA and TQA Generation: Visual Question Answering (VQA) and Table Question Answering (TQA) pairs are created by leveraging a multi-modal model, GPT-4o. This model generates detailed descriptions of images, from which questions are then crafted, ensuring they require multi-modal reasoning beyond simple text queries.
- Filtering: To ensure the quality and challenge of the generated questions, an extensive filtering protocol is employed. It involves blind testing the LMMs to ensure that questions cannot be answered without visual context and verifying question accuracy through consensus between multiple models, reducing biases and errors.
- Efficient Evaluation: The benchmark's evolving nature necessitates a method for efficient evaluation of model performance over time. Inspired by Item Response Theory (IRT), the paper proposes a method to approximate model performance on new data versions, thus reducing the cost and time traditionally required for comprehensive re-evaluation.
Results and Analysis
The paper demonstrates the benchmark's effectiveness by evaluating 17 LMMs, both open-sourced and proprietary, across two task categories: VQA and TQA. The results reveal significant insights into the models' performance, highlighting strengths and weaknesses across various scientific domains. Notably, models such as Claude-Sonnet achieve higher accuracy, suggesting specific architectural and methodological advantages.
The thorough analysis of performance across visual and textual question types points out critical challenges for LMMs, such as difficulty with arithmetic reasoning and certain types of visual content. The minimal variance between automated and manually verified data underscores the robustness of LiveXiv's generation and filtering processes.
Implications and Future Directions
LiveXiv sets a precedent for the future development of AI benchmarks by illustrating the feasibility and advantages of a live, evolving dataset free from contamination. This approach not only ensures more reliable evaluation of LMMs but also paves the way for ongoing improvement by continuously challenging models with fresh, domain-specific knowledge.
Moving forward, LiveXiv can be expanded to include other scientific archives, such as BioRxiv, broadening its domain scope. Furthermore, its efficient evaluation methodology can be applied to other dynamic datasets, promoting a more efficient setup for model assessment as the landscape of AI continues to evolve. This paper thus contributes a significant tool for refining the development and benchmarking of LMMs, offering a scalable and contamination-free alternative to traditional static benchmarks.