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arXiv · 2606.15573

QoS-Aware Token Scheduling and Private Data Valuation for Multi-Modal Agentic Networks

Yao Du·Jing Liu·Pengfei Xu·Zehua Wang·Victor C. M. Leung·Cyril Leung·Victoria Lemieux
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Abstract

In agentic systems, human-generated data records anchor the value of AI services. Yet cloud compute pipelines centralize processing on remote servers. Data centralization reduces personal data sovereignty and may potentially degrade the quality of service (QoS). Meanwhile, user contributions are diverse in quantity and quality: decentralized records can be biased, noisy, and heterogeneously distributed. To address the data challenge, we study fair token allocation and private data valuation for decentralized and resource-constrained agentic systems. Our approach embeds multi-modal representations in a shared semantic space and releases differentially private (DP) prototypes to preserve utility while reducing semantic leakage. With the DP guarantee, we design a fair token allocation scheme that rewards effective contributions and remains robust to data heterogeneity and AI resource scarcity. Extensive simulations demonstrate improved contribution-based fairness and QoS compared to standard benchmarks. The improved resistance to image reconstruction attacks indicates enhanced privacy for multi-modal personal data.

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Yao Du, Jing Liu, Pengfei Xu, Zehua Wang, Victor C. M. Leung, Cyril Leung, Victoria Lemieux. 2026-06-16. QoS-Aware Token Scheduling and Private Data Valuation for Multi-Modal Agentic Networks. https://arxiv.org/abs/2606.15573

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