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54 lines
2.6 KiB
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54 lines
2.6 KiB
TeX
\section{Related Work}
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\label{sec:related}
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\paragraph{Code Generation Agents.}
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SWE-agent~\cite{yang2024sweagent} and AutoCodeRover~\cite{zhang2024autocoderover}
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use agentic loops with tool use for software engineering tasks.
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Aider~\cite{aider2024} provides a chat-based interface for code editing.
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Claude Code and Cursor~\cite{cursor2024} integrate LLMs into development
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workflows. These systems rely on in-context learning without systematic
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adaptation mechanisms.
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\paragraph{Reinforcement Learning for LLMs.}
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RLHF~\cite{ouyang2022training} and DPO~\cite{rafailov2024direct} optimize
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language model behavior via reward signals but require gradient updates.
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GRPO~\cite{shao2024deepseekmath} introduces group-relative advantages for
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more stable training. Our TF-GRPO extends GRPO to the training-free regime.
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\paragraph{Parameter-Efficient Adaptation.}
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LoRA~\cite{hu2022lora} and QLoRA~\cite{dettmers2024qlora} reduce the cost
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of fine-tuning via low-rank parameter updates. Prefix
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tuning~\cite{li2021prefix} and prompt tuning~\cite{lester2021power} adapt
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models by learning soft prompts. These methods still require gradient
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computation and risk forgetting.
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\paragraph{Product-of-Experts.}
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PoE models~\cite{hinton2002training} combine expert distributions
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multiplicatively. \cite{du2023reducing} use PoE for reducing sycophancy in
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LLMs. \cite{liu2024tuning} apply PoE for controllable generation. Our work
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extends PoE to incorporate experiential priors derived from task execution.
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\paragraph{Training-Free Adaptation.}
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In-context learning~\cite{brown2020language}, chain-of-thought
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prompting~\cite{wei2022chain}, and retrieval-augmented
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generation~\cite{lewis2020retrieval} adapt models without training. Self-refine
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~\cite{madaan2023selfrefine} uses iterative feedback loops. These methods lack
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the systematic advantage extraction and compression that ASO provides.
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\paragraph{Active Inference.}
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Active inference~\cite{friston2017active, parr2022active} frames
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decision-making as free energy minimization. \cite{sajid2021active} apply
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active inference to planning. Our epistemic reward term is inspired by the
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expected free energy formulation in active inference.
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\paragraph{Model Compression.}
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BitDelta~\cite{liu2024bitdelta} compresses fine-tuning deltas to 1 bit.
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GPTQ~\cite{frantar2023gptq} and AWQ~\cite{lin2024awq} quantize model weights
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for inference efficiency. Our 1-bit prior compression applies similar ideas to
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experiential factors rather than model parameters.
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% ============================================================================
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% 11. CONCLUSION
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% ============================================================================
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