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The paper "Agentic Reasoning for Large Language Models" provides a comprehensive survey on the paradigm shift from traditional, passive LLM inference to Agentic Reasoning. In this new framework, LLMs are treated as autonomous agents that interleave deliberation with environmental interaction, enabling them to plan, act, and continually learn.
The authors organize the landscape of agentic reasoning into three primary layers:
Across all three layers, the survey categorizes optimization strategies into two modes: in-context reasoning (which scales test-time interaction through prompting, search, and workflow orchestration without updating model weights) and post-training reasoning (which internalizes successful reasoning behaviors into the model's parameters via reinforcement learning and supervised fine-tuning).
Finally, the paper contextualizes this framework by reviewing real-world applications and benchmarks across diverse domains—including mathematics/coding, scientific discovery, embodied robotics, healthcare, and autonomous web exploration. It concludes by identifying critical open challenges for the future, such as user personalization, long-horizon credit assignment, integration with world models, and governance/safety guardrails for real-world deployment.
By Yun WuThe paper "Agentic Reasoning for Large Language Models" provides a comprehensive survey on the paradigm shift from traditional, passive LLM inference to Agentic Reasoning. In this new framework, LLMs are treated as autonomous agents that interleave deliberation with environmental interaction, enabling them to plan, act, and continually learn.
The authors organize the landscape of agentic reasoning into three primary layers:
Across all three layers, the survey categorizes optimization strategies into two modes: in-context reasoning (which scales test-time interaction through prompting, search, and workflow orchestration without updating model weights) and post-training reasoning (which internalizes successful reasoning behaviors into the model's parameters via reinforcement learning and supervised fine-tuning).
Finally, the paper contextualizes this framework by reviewing real-world applications and benchmarks across diverse domains—including mathematics/coding, scientific discovery, embodied robotics, healthcare, and autonomous web exploration. It concludes by identifying critical open challenges for the future, such as user personalization, long-horizon credit assignment, integration with world models, and governance/safety guardrails for real-world deployment.