@marfinxx: This Google DeepMind paper is f*cking brilliant A new research paper proves that turning verifiers into generative next…

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A Google DeepMind research paper demonstrates that converting verifiers into generative next-token predictors significantly improves reasoning accuracy, enabling chain-of-thought verification and better performance on math problems through inference-time compute scaling.

This Google DeepMind paper is f*cking brilliant A new research paper proves that turning verifiers into generative next-token predictors unlocks superhuman reasoning accuracy The result: chain-of-thought verification rationales, inference-time compute scaling, and seamless generalization from grade-school math to competition problems candidate solutions → CoT rationale generation → token probability scoring → majority-voted ensemble → optimal solution select Google DeepMind unified verification and generation under standard next-token prediction: → Verification as Next-Token Prediction Replaces arbitrary scalar reward heads with the direct probability of generating a Yes or No token. Verification becomes native autoregressive text generation rather than artificial classification → Chain-of-Thought Verification (GenRM-CoT) The verifier generates an explicit step-by-step critique before predicting correctness, catching hidden calculation bugs and hallucinations missed by direct scoring → Inference-Time Compute Scaling Samples multiple independent verification rationales and averages the predicted Yes probabilities across majority votes, filtering out single-path errors and outperforming prompt-based LLM judges → Easy-to-Hard Generalization A 9B generative verifier trained only on grade-school math successfully generalized to high-school competition problems on MATH500, boosting solve rates from 28.0% to 44.6% → Hypothesis Verification & Empirical Results Google DeepMind hypothesized that generative critique with test-time compute scaling dramatically outperforms discriminative reward modeling. Practical validation on complex multi-step reasoning pipelines confirmed the findings: task accuracy surged from 73.0% to 93.4% on GSM8K while requiring 2.5x fewer candidate samples Treating verification as generative reasoning turns reward modeling into an autoregressive self-correction engine Read the complete breakdown in the article below ↓
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This Google DeepMind paper is f*cking brilliant

A new research paper proves that turning verifiers into generative next-token predictors unlocks superhuman reasoning accuracy

The result: chain-of-thought verification rationales, inference-time compute scaling, and seamless generalization from grade-school math to competition problems

candidate solutions → CoT rationale generation → token probability scoring → majority-voted ensemble → optimal solution select

Google DeepMind unified verification and generation under standard next-token prediction:

→ Verification as Next-Token Prediction Replaces arbitrary scalar reward heads with the direct probability of generating a Yes or No token. Verification becomes native autoregressive text generation rather than artificial classification

→ Chain-of-Thought Verification (GenRM-CoT) The verifier generates an explicit step-by-step critique before predicting correctness, catching hidden calculation bugs and hallucinations missed by direct scoring

→ Inference-Time Compute Scaling Samples multiple independent verification rationales and averages the predicted Yes probabilities across majority votes, filtering out single-path errors and outperforming prompt-based LLM judges

→ Easy-to-Hard Generalization A 9B generative verifier trained only on grade-school math successfully generalized to high-school competition problems on MATH500, boosting solve rates from 28.0% to 44.6%

→ Hypothesis Verification & Empirical Results Google DeepMind hypothesized that generative critique with test-time compute scaling dramatically outperforms discriminative reward modeling. Practical validation on complex multi-step reasoning pipelines confirmed the findings: task accuracy surged from 73.0% to 93.4% on GSM8K while requiring 2.5x fewer candidate samples

Treating verification as generative reasoning turns reward modeling into an autoregressive self-correction engine

Read the complete breakdown in the article below ↓

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