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Asking the user for the missing requirement raised in-context learning from 14.6 to 21.0 percent

AspireAI community · arXiv
On CL-bench Life, a benchmark where models must reason over a user's own web traces, frontier LLMs solved fewer than one task in five, and the authors found the request itself is often not the specification: more than 80 percent of the benchmark's rubrics share less than 60 percent of their content words with the final request. Their QERA architecture turns the request into a requirement checklist, answers from the whole conversation, then asks the same questions again with quotes verified by code, using about four LLM calls and no training. Across all 405 tasks with four frontier LLMs it reached the highest solving rate on every model, 21.0 percent on average against 18.2 percent for the strongest of three inference-time baselines and 14.6 percent for direct answering, while using fewer tokens than PSCI and 4 to 5 percent of the tokens of Ctx2Skill. The honest limit is that the absolute solving rate stays low, so this is a meaningful relative gain rather than a solved problem.
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One distance function matched sparse-autoencoder features across layers and compressed feature circuits into supernodes
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