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Physics of Language Models: Part 2.2, How to Learn From Mistakes on Grade-School Math Problems
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Language models have demonstrated remarkable performance in solving reasoning tasks; however, even the strongest models still occasionally make reasoning mistakes. Recently, there has been active research aimed at improving reasoning accuracy, particularly by using pretrained language models to "self-correct" their mistakes via multi-round prompting. In this paper, we follow this line of work but focus on understanding the usefulness of incorporating "error-correction" data directly into the pretraining stage. This data consists of erroneous solution steps immediately followed by their corrections. Using a synthetic math dataset, we show promising results: this type of pretrain data can help language models achieve higher reasoning accuracy directly (i.e., through simple auto-regression, without multi-round prompting) compared to pretraining on the same amount of error-free data. We also delve into many details, such as (1) how this approach differs from beam search, (2) how such data can be prepared, (3) whether masking is needed on the erroneous tokens, (4) the amount of error required, (5) whether such data can be deferred to the fine-tuning stage, and many others.
Forward citations
Cited by 4 Pith papers
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Physics of Language Models: Part 4.1, Architecture Design and the Magic of Canon Layers
Canon layers—residual 1-d causal convolutions over adjacent tokens—boost synthetic reasoning depth 2-4x, lift NoPE to RoPE level, and bring GLA up to Mamba2/GDN, with qualitative real-world confirmation.
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Think Before You Accept: Semantic Reflective Verification for Faster Speculative Decoding
Reflective Verification fuses a target LLM's normal and reflection-prompted logits to accept semantically correct draft tokens, increasing accepted draft length and decoding speed by 5-15%.
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Boosting LLM Reasoning via Spontaneous Self-Correction
SPOC trains LLMs to interleave self-verification and solution attempts in a single pass, reporting gains on math benchmarks, though most gains come from stronger first attempts.
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A Survey on Large Language Models for Mathematical Reasoning
Recent advances in LLM mathematical reasoning are organized into comprehension and generation phases, covering methods from prompting to test-time scaling.
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