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This research reframes AI agent performance as a systems challenge, identifying the "intent-execution" gap between model intentions and harness execution as a critical bottleneck. By analyzing 154k trajectories across diverse models like GPT and Claude, the study demonstrates that optimizing harness alignment can significantly outperform raw model capabilities on complex agentic benchmarks. The work provides a method for dissecting problem-solving behaviors through code state-spaces, offering finer-grained insights into how different models allocate effort during execution.
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Dissecting model behavior through agent trajectories

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arXiv:2606.17454v3 Announce Type: replace Abstract: AI agent performance is not just a modeling problem, it is fundamentally a systems problem. The advanced capabilities of models are realized through agent harnesses. Therefore, a gap between model assumptions and harness behavior can easily prevent the model's full capabilities from translating into agent performance. We formalize this as the `intent-execution' gap: the mismatch between what the model intends and what the harness executes, and vice versa. We argue that minimizing this intent-execution gap is as important as other aspects of harness design such as tools and execution loops. To illustrate the impact of this harness-model alignment, we develop a simple and customizable harness called `Simple Strands Agent' (SSA). SSA aims to find the bulk of common patterns which generalize across different model families (such as Claude, Gemini, GPT, Grok, Qwen), as well as a small number of model-specific preferences. We make two contributions: (i) we \textbf{reproduce or improve on the pass@1} performance reported by diverse model-provider families on popular agentic benchmarks (SWE-Pro, SWE-Verified, Terminal-Bench-2, and Deep-SWE), and (ii) building on an \textbf{analysis of 154\texttt{k} trajectories generated by SSA}, we look beyond the \texttt{pass@1} numbers which tend to be relatively even across frontier models. By representing agent trajectories in code state-spaces, we compute solution distance and backtracking to observe model-level differences in problem-solving behavior. Finer-grained metrics such as edit frequency, testing activity, and phase-transitions reveal how individual models allocate effort across different stages of problem solving.

Abstract:AI agent performance is not just a modeling problem, it is fundamentally a systems problem. The advanced capabilities of models are realized through agent harnesses. Therefore, a gap between model assumptions and harness behavior can easily prevent the model's full capabilities from translating into agent performance. We formalize this as the `intent-execution' gap: the mismatch between what the model intends and what the harness executes, and vice versa. We argue that minimizing this intent-execution gap is as important as other aspects of harness design such as tools and execution loops. To illustrate the impact of this harness-model alignment, we develop a simple and customizable harness called `Simple Strands Agent' (SSA). SSA aims to find the bulk of common patterns which generalize across different model families (such as Claude, Gemini, GPT, Grok, Qwen), as well as a small number of model-specific preferences. We make two contributions: (i) we \textbf{reproduce or improve on the pass@1} performance reported by diverse model-provider families on popular agentic benchmarks (SWE-Pro, SWE-Verified, Terminal-Bench-2, and Deep-SWE), and (ii) building on an \textbf{analysis of 154\texttt{k} trajectories generated by SSA}, we look beyond the \texttt{pass@1} numbers which tend to be relatively even across frontier models. By representing agent trajectories in code state-spaces, we compute solution distance and backtracking to observe model-level differences in problem-solving behavior. Finer-grained metrics such as edit frequency, testing activity, and phase-transitions reveal how individual models allocate effort across different stages of problem solving.

Artificial Intelligence (cs.AI); Machine Learning (cs.LG)

arXiv:2606.17454 [cs.AI]

(or arXiv:2606.17454v3 [cs.AI] for this version)

https://doi.org/10.48550/arXiv.2606.17454 Focus to learn more arXiv-issued DOI via DataCite

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