Efficient Information Updates in Compute-First Networking via Reinforcement Learning with Joint AoI and VoI
Jianpeng Qi, Chao Liu, Chengxiang Xu, Rui Wang, Junyu Dong, Yanwei Yu

TL;DR
This paper introduces a joint Age-and-Value-Aware metric and a reinforcement learning policy for efficient service information updates in compute-first networking, significantly reducing communication without sacrificing task accuracy.
Contribution
It proposes a novel AVA metric that combines timeliness and relevance, and a reinforcement learning approach to optimize update decisions in compute-first networking systems.
Findings
AVA reduces update frequency by over 90% on average.
The RL policy maintains task accuracy despite fewer updates.
Significant communication savings without performance loss.
Abstract
Timely and efficient dissemination of service information is critical in compute-first networking systems, where user requests arrive dynamically and computing resources are constrained. In such systems, the access point (AP) plays a key role in forwarding user requests to a server based on its latest received service information. This paper considers a single-source, single-destination system and introduces an Age-and-Value-Aware (AVA) metric that jointly captures both the timeliness and the task relevance of service information. Unlike traditional freshness-based metrics, AVA explicitly incorporates variations in server-side service capacity and AP forwarding decisions, allowing more context-aware update evaluation. Building upon AVA, we propose a reinforcement learning-based update policy that learns to selectively transmit service information updates to the AP. It aims to maximize…
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Taxonomy
TopicsAge of Information Optimization · Opportunistic and Delay-Tolerant Networks · Caching and Content Delivery
