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This research introduces KITE, a training-free framework that optimizes multi-agent collaboration by transmitting only task-sufficient key-layer states rather than full internal representations. By prioritizing receiver-side task sufficiency over sender-side fidelity, the method achieves significant reductions in communication volume and inference latency while boosting accuracy across multiple benchmarks. This advancement directly addresses efficiency bottlenecks in large language model-based agent systems, making complex collaborative problem solving more scalable.
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Task-Oriented Key-Layer KV Communication for Efficient Latent Multi-Agent Collaboration

arXiv2 min read

arXiv:2610.08820v1 Announce Type: new Abstract: Large language model-based multi-agent systems improve complex problem solving through collaboration, while latent communication directly transmits model internal states to avoid the high inference costs of natural language. However, existing KV-based latent communication methods prioritize sender-side state fidelity, leading to substantial communication and computation overhead and potentially introducing redundant information. To address these limitations, we revisit latent communication from a task-oriented perspective, shifting its objective from sender-side state fidelity to receiver-side task sufficiency. Under this formulation, we propose KITE, a training-free framework for task-oriented key-layer KV communication. KITE identifies a task-effective key layer using a receiver trajectory distortion criterion, transmits only the latent working memory associated with the key layer, and further uses the same layer as the entry point for autoregressive latent reasoning. Experiments on seven benchmarks across two model families and three model scales show that, compared with full-layer KV communication, KITE reduces communication volume by 28-36$\times$, achieves up to 3$\times$ end-to-end inference speedup, and improves accuracy by up to 23.3 percentage points.

Abstract:Large language model-based multi-agent systems improve complex problem solving through collaboration, while latent communication directly transmits model internal states to avoid the high inference costs of natural language. However, existing KV-based latent communication methods prioritize sender-side state fidelity, leading to substantial communication and computation overhead and potentially introducing redundant information. To address these limitations, we revisit latent communication from a task-oriented perspective, shifting its objective from sender-side state fidelity to receiver-side task sufficiency. Under this formulation, we propose KITE, a training-free framework for task-oriented key-layer KV communication. KITE identifies a task-effective key layer using a receiver trajectory distortion criterion, transmits only the latent working memory associated with the key layer, and further uses the same layer as the entry point for autoregressive latent reasoning. Experiments on seven benchmarks across two model families and three model scales show that, compared with full-layer KV communication, KITE reduces communication volume by 28-36$\times$, achieves up to 3$\times$ end-to-end inference speedup, and improves accuracy by up to 23.3 percentage points.

Machine Learning (cs.LG)

arXiv:2610.08820 [cs.LG]

(or arXiv:2610.08820v1 [cs.LG] for this version)

https://doi.org/10.48550/arXiv.2610.08820 Focus to learn more arXiv-issued DOI via DataCite

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Full text under the publisher's open licence · 257 words

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