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The paper proposes a learned controller that adjusts multi-agent LLM deliberation at inference time while the underlying model stays frozen. Its reported gains of 6.2 to 14.2 points over direct answering come with 8 to 19 times more tokens and 8 to 17 times more latency, and transfer to a newer model version is task-dependent. Readers should weigh the accuracy gains against that compute cost and treat the generality claims as bounded by the authors' own caveats.
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Learning Adaptive Deliberation Control for Reliable Recognition with Multi-Agent Language Models

arXiv3 min read

arXiv:2610.17840v1 Announce Type: new Abstract: Multi-agent deliberation can improve recognition by criticizing and revising candidate answers, but fixed controls cannot respond to changes in disagreement or reasoning quality. We present an adaptive multi-agent controller (ADMA) that learns continuous policies for proposal, challenge, arbitration, and coordination while keeping the task model frozen. Shared trace features describe quality, agreement, and progress, while role-specific features support decentralized control during inference. One controller trained on legal and financial reasoning is transferred without policy updates to four textual and multimodal benchmarks and two successive task-model versions. With Qwen3.5 held fixed, ADMA-Full improves accuracy by 6.2-14.2 percentage points over Direct and by 2.8-3.0 points over ADMA-Fixed. Paired bootstrap ranges for the Full-Fixed comparison are positive on three tasks. Outcome decompositions show that recoveries exceed introduced errors, while process assessment records fewer false-consensus events and more supported correct outcomes. Transfer to Qwen3.6 remains task dependent, which bounds the generality of the learned policy. Median token and latency ratios are 14.3-18.7 and 7.8-16.5 relative to Direct. These results show that adaptive deliberation can improve fixed-model recognition when its task-dependent gains justify the additional computation.

Abstract:Multi-agent deliberation can improve recognition by criticizing and revising candidate answers, but fixed controls cannot respond to changes in disagreement or reasoning quality. We present an adaptive multi-agent controller (ADMA) that learns continuous policies for proposal, challenge, arbitration, and coordination while keeping the task model frozen. Shared trace features describe quality, agreement, and progress, while role-specific features support decentralized control during inference. One controller trained on legal and financial reasoning is transferred without policy updates to four textual and multimodal benchmarks and two successive task-model versions. With Qwen3.5 held fixed, ADMA-Full improves accuracy by 6.2-14.2 percentage points over Direct and by 2.8-3.0 points over ADMA-Fixed. Paired bootstrap ranges for the Full-Fixed comparison are positive on three tasks. Outcome decompositions show that recoveries exceed introduced errors, while process assessment records fewer false-consensus events and more supported correct outcomes. Transfer to Qwen3.6 remains task dependent, which bounds the generality of the learned policy. Median token and latency ratios are 14.3-18.7 and 7.8-16.5 relative to Direct. These results show that adaptive deliberation can improve fixed-model recognition when its task-dependent gains justify the additional computation.

33 pages, including references and technical appendices. Supplementary data included in the ancillary files

Artificial Intelligence (cs.AI)

arXiv:2610.17840 [cs.AI]

(or arXiv:2610.17840v1 [cs.AI] for this version)

https://doi.org/10.48550/arXiv.2610.17840 Focus to learn more arXiv-issued DOI via DataCite (pending registration)

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data/outcome_round_allocation.csv

data/paired_bootstrap_intervals.csv

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data/reliability_states.csv

data/repeat_consistency.csv

data/run_metrics.csv

data/strong_task_failure_incidence.csv

data/within_endpoint_subgroups.csv

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Full text under the publisher's open licence · 317 words

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