Challenge: Guided by Gut (GG) is an efficient self-guided TTS framework for Large Language Models (LLMs) that performs step-by-step reasoning at a low cost without any reward models or verifiers.
Approach: They propose a self-guided TTS framework that enables LLMs to perform step-by-step reasoning at a low cost without any reward models or verifiers.
Outcome: Empirical evaluations show that GG performs better than TTS with PRMs while reducing GPU memory usage by up to 10.

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Step-level Verifier-guided Hybrid Test-Time Scaling for Large Language Models (2025.emnlp-main)

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Challenge: Recent training-based TTS methods, such as continued reinforcement learning, have surged in popularity, while training-free TTS approaches are gradually fading from prominence.
Approach: They propose a fine-grained sequential scaling method guided by process verification that integrates training-free TTS methods with other classical parallel scaling methods at the step level.
Outcome: Experiments on five instruction-tuned large language models (LLMs) show that training-free TTS methods can extend reasoning performance boundaries.
Efficient Test-Time Scaling of Multi-Step Reasoning by Probing Internal States of Large Language Models (2026.acl-long)

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Challenge: Existing verification approaches, such as Process Reward Models, are computationally expensive and limited to specific domains.
Approach: They propose a transformer-based probe that uses internal states of frozen LLMs to estimate credibility of reasoning steps during generation.
Outcome: The proposed probes match or exceed PRMs that are up to 810 larger.
Less is More: Improving LLM Reasoning with Minimal Test-Time Intervention (2026.acl-long)

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Challenge: Recent advances in large language models (LLMs) have focused on test-time scaling to improve reasoning quality but at the cost of efficiency.
Approach: They propose a training-free framework that enhances reasoning accuracy and stability with minimal overhead.
Outcome: The proposed framework yields consistent gains across general, coding, and STEM tasks while remaining highly efficient.
ConMA : Confidence-Guided Kernel Sampling with Multi-Stage Aggregation for LLM Reasoning (2026.findings-acl)

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Challenge: Existing approaches to test-time scaling rely on external verifiers and one-shot independent sampling.
Approach: They propose a test-time scaling framework that reallocates a fixed inference budget into iterative sample–filter–diversify–select cycles.
Outcome: ConMA outperforms baselines on multiple benchmarks while converging early with only 18 samples on average, substantially reducing inference cost.
Prompting Test-Time Scaling Is A Strong LLM Reasoning Data Augmentation (2026.findings-acl)

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Challenge: Large language models exhibit strong reasoning when guided by chain-of-thought exemplars . collecting large, high-quality reasoning datasets remains laborious and resource-intensive .
Approach: They propose a prompt-space data augmentation framework for enhancing LLM reasoning . they use a pool of 90 randomly selected reasoning instances to elicit diverse reasoning trajectories .
Outcome: The proposed framework improves accuracy over small-data benchmarks and generalization on out-of-domain reasoning evaluations.
MUR: Momentum Uncertainty guided Reasoning for Large Language Models (2026.acl-long)

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Challenge: Existing methods for optimizing reasoning quality are limited by overthinking.
Approach: They propose a method that allocates thinking budgets to critical reasoning steps by tracking and aggregating step-wise uncertainty over time.
Outcome: The proposed method reduces computation by over 45% on average while improving accuracy by 0.33–3.46%.
Z1: Efficient Test-time Scaling with Code (2025.emnlp-industry)

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Challenge: Large Language Models (LLMs) can achieve enhanced complex problem-solving through test-time computing scaling, but this often entails longer contexts and numerous reasoning token costs.
Approach: They propose an efficient test-time scaling method that trains LLMs on code-related reasoning trajectories and a novel Shifted Thinking Window to mitigate overthinking overhead.
Outcome: The proposed method reduces overthinking overhead while maintaining performance.
A Reward-Guided Dual-Phase Framework for Adaptive Inference-Time Reasoning (2026.findings-acl)

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Challenge: Large Language Models (LLMs) have made strong progress in reasoning.
Approach: They propose a dual-phase test-time scaling framework that separates planning and execution and performs search over each phase independently.
Outcome: Experiments on math reasoning and code generation benchmarks show that the proposed approach improves accuracy while reducing redundant computation.
Faster and Better LLMs via Latency-Aware Test-Time Scaling (2025.findings-emnlp)

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Challenge: Existing research has overlooked the efficiency of TTS from a latency-sensitive perspective.
Approach: They propose two approaches to achieve latency-optimal TTS by branch-wise parallelism and sequence-wise parallelism.
Outcome: The proposed approach achieves latency-optimal TTS for large models . branch-wise parallelism and sequence-wise parallelism are key approaches .
Confidence-Aware Reasoning: Optimizing Self-Guided Thinking Trajectories in Large Reasoning Models (2025.emnlp-industry)

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Challenge: Chain-of-thought enables large reasoning models to reason through multi-step problems but often leads to unnecessarily long or redundant reasoning traces, a phenomenon known as overthinking.
Approach: They propose an inference-time framework that selectively prunes low-utility reasoning blocks and halts early when sufficient confidence has been achieved.
Outcome: The proposed framework improves answer accuracy by up to +13.3% while reducing average reasoning length by 40%–50%.

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