Date
Publisher
arXiv
Large Language Models (LLMs), such as GPT-4, have demonstrated impressive mathematical reasoning capabilities, achieving near-perfect performance on benchmarks like GSM8K. However, their application in personalized education remains limited due to an overemphasis on correctness over error diagnosis and feedback generation. Current models fail to provide meaningful insights into the causes of student mistakes, limiting their utility in educational contexts. To address these challenges, we present three key contributions. First, we introduce \textbf{MathCCS} (Mathematical Classification and Constructive Suggestions), a multi-modal benchmark designed for systematic error analysis and tailored feedback. MathCCS includes real-world problems, expert-annotated error categories, and longitudinal student data. Evaluations of state-of-the-art models, including \textit{Qwen2-VL}, \textit{LLaVA-OV}, \textit{Claude-3.5-Sonnet} and \textit{GPT-4o}, reveal that none achieved classification accuracy above 30\% or generated high-quality suggestions (average scores below 4/10), highlighting a significant gap from human-level performance. Second, we develop a sequential error analysis framework that leverages historical data to track trends and improve diagnostic precision. Finally, we propose a multi-agent collaborative framework that combines a Time Series Agent for historical analysis and an MLLM Agent for real-time refinement, enhancing error classification and feedback generation. Together, these contributions provide a robust platform for advancing personalized education, bridging the gap between current AI capabilities and the demands of real-world teaching.
Study at a glance
- Question: Can AI models accurately diagnose the causes of student math errors and provide helpful feedback?
- Setting and data: Real-world math problems, expert-annotated error categories, and longitudinal student data.
- Method: Evaluates AI models on diagnosing student errors and develops a collaborative multi-agent diagnostic framework.
Why it matters
Large language models overemphasize correctness over error diagnosis and feedback generation. Failing to provide meaningful insights into the causes of student mistakes limits their utility in personalized education.
Key findings
- In math, leading AI models correctly identified student errors less than 30% of the time and scored below 4 out of 10 for feedback quality.
- Using historical student data to track performance trends improved the precision of AI error diagnoses.
- Combining historical trend analysis with real-time AI evaluation enhanced error classification and feedback generation.
Summary drafted with AI from the paper’s abstract and may contain errors. See the full paper for details.
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