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"Improving Physics Reasoning in Large Language Models Using Mixture of Refinement Agents"

The podcast on this paper is generated with Google's Illuminate.

MoRA (Mixture of Refinement Agents ) makes LLMs better physicists by fixing their reasoning errors one step at a time

This paper introduces Mixture of Refinement Agents (MoRA), a framework that enhances physics reasoning in LLMs by identifying and correcting three key error types: problem miscomprehension, incorrect concept application, and computational errors. MoRA uses specialized agents for iterative refinement, significantly improving open-source LLM performance.

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https://arxiv.org/abs/2412.00821

🤔 Original Problem:

LLMs struggle with physics reasoning tasks due to three main challenges: misunderstanding problems, applying wrong concepts, and making computational errors. Current solutions address these issues separately, lacking a unified approach.

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🔧 Solution in this Paper:

→ MoRA uses GPT-4o as an error identifier to analyze LLM solutions and assign specific flags and scores.

→ Three specialized refinement agents tackle different error types: miscomprehension, concept application, and computation.

→ The framework works iteratively, with each agent refining solutions until all errors are resolved or maximum iterations reached.

→ For concept refinement, MoRA uses GraphRAG to retrieve correct physics knowledge from an external database.

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💡 Key Insights:

→ Problem miscomprehension errors are least common but crucial to address first

→ Concept application errors require external knowledge base integration

→ Computational errors form the majority of mistakes in LLM solutions

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📊 Results:

→ MoRA improved Llama-3-70B accuracy by 13.38% on PhysicsQA benchmark

→ Enhanced Gemma-2-27B performance by 16.03% on complex physics problems

→ Achieved 64% prediction accuracy on test sets

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