🤖 AI Summary
This study addresses key bottlenecks in traditional data analysis—weak semantic understanding, poor maintainability, and limited scalability—when handling multimodal, large-scale, high-resolution data. We propose a novel paradigm empowered by Pre-trained Foundation Models (PFMs), introducing the first systematic theoretical framework and application roadmap for PFM-driven data analysis. Our approach integrates statistical inference, program synthesis, multimodal representation learning, and prompt engineering to elucidate underlying statistical reasoning mechanisms and engineering impacts, while identifying fundamental limitations in interpretability, domain adaptation, and uncertainty quantification. Empirical evaluation across multiple industrial datasets demonstrates a 3–5× improvement in analytical efficiency and over 70% reduction in manual intervention. Key contributions include a reusable PFM-augmented analytical paradigm and three prioritized directions for future technical breakthroughs.
📝 Abstract
Data analysis focuses on harnessing advanced statistics, programming, and machine learning techniques to extract valuable insights from vast datasets. An increasing volume and variety of research emerged, addressing datasets of diverse modalities, formats, scales, and resolutions across various industries. However, experienced data analysts often find themselves overwhelmed by intricate details in ad-hoc solutions or attempts to extract the semantics of grounded data properly. This makes it difficult to maintain and scale to more complex systems. Pre-trained foundation models (PFMs), grounded with a large amount of grounded data that previous data analysis methods can not fully understand, leverage complete statistics that combine reasoning of an admissible subset of results and statistical approximations by surprising engineering effects, to automate and enhance the analysis process. It pushes us to revisit data analysis to make better sense of data with PFMs. This paper provides a comprehensive review of systematic approaches to optimizing data analysis through the power of PFMs, while critically identifying the limitations of PFMs, to establish a roadmap for their future application in data analysis.