Evaluating Agentic Capabilities Before Post-Training: An End-to-End Approach
Summary
The paper introduces ASAP, a lightweight framework for evaluating agentic behavior in pretrained base models through interactive end-to-end tasks without converting them into chat agents, demonstrating discriminative performance across software-engineering and deep-research benchmarks.
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Paper page - Evaluating Agentic Capabilities Before Post-Training: An End-to-End Approach
Source: https://huggingface.co/papers/2610.19425 Published on Oct 14
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Submitted byhttps://huggingface.co/qinjr
JR QINon Oct 21
Abstract
ASAP is a lightweight framework that evaluates agentic behavior in pretrained base models via interactive end-to-end tasks without converting them to chat agents.
Agentic capabilities are increasingly important for modern LLMs, yet remain difficult to evaluate during pretraining. Existing approaches typically rely on static trajectory-derived tasks or likelihood-based proxies, which are lightweight but provide limited visibility into howbase modelsbehave in interactive environments. We introduce ASAP (Agent Scaffold Adaptation for Pretraining Evaluation), a lightweight framework for eliciting and evaluatingagentic behaviorfrom pretrainedbase modelson end-to-end tasks. Rather than convertingbase modelsinto chat-style agents, ASAP preserves the completion interface and adapts existingagent scaffoldsthrough structuredtrajectory continuation, short reference prefixes, and minimal recovery mechanisms. Across software-engineering anddeep-research benchmarks, ASAP yields discriminative end-to-end performance acrossbase modelsandpretraining checkpoints. Beyond aggregate scores, ASAP exposes model-generatedexecution trajectories, enabling analysis of exploration, editing, testing, recovery, and task completion across training stages. These trajectories provide a behavioral view of how agent-relevant capabilities change during pretraining and how execution patterns differ after post-training. Our results suggest that end-to-end agent evaluation can complement conventional pretraining benchmarks by providing a practical diagnostic of interactive model behavior.
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