MusiSPARQ: Subscription-Aware Adaptive Resource Control for Musical Metaverse Services
Ali Al Housseini, Jaime Llorca, Omran Ayoub
Abstract
The Musical Metaverse relies on distributed audio, visual, inference, and delivery functions deployed across heterogeneous edge-cloud resources. Queue-aware orchestration frameworks such as SPARQ jointly optimize service placement, routing, and resource allocation, but fix the execution regime of each resource in advance: it is either shared, favoring statistical multiplexing, or guaranteed, favoring performance isolation. This paper introduces MusiSPARQ, a subscription-aware control framework that promotes resource isolation from a fixed infrastructure attribute to a runtime decision. Each switchable resource is represented through coupled shared- and guaranteed-resource pools drawing from the same physical-capacity budget, and at each orchestration epoch the controller selects which class-specific service flows remain shared and which receive isolated capacity. The per-epoch decision jointly accounts for class-specific latency objectives, per-class maximum-latency limits, queueing stability, isolation cost, and switching overhead. In a dynamic virtual-concert scenario, MusiSPARQ reduces the Premium latency-target violation rate from 16.19% to 0.29% relative to fully shared execution, while reserving on average only 0.71% of capacity and, unlike static isolation, keeping Standard and Basic traffic within their latency targets.
Create a lesson
Related papers
Exploring the Power Consumption of ERC-4337 Bundling on Server Infrastructure
Claudiu-Nicu Bărbieru, Oana-Otilia Captarencu, Pascal Felber et al.
Survival-Time Risk Beyond Low-Order Channel Models: Identifiability and Scheduling
Ruifeng Zheng, Zhihan Xu, Pit Hofmann et al.
From Reactive to Agentic Resilience: Multi-Timescale AI-RAN Orchestration Under Signaling Storms
Sotiris Chatzimiltis, Mahdi Boloursaz Mashhadi, Mohammad Shojafar et al.
Pod-wise Multimodal Federated Learning for Heterogeneous IoT
Joy Okolo, Zihao Ding, Jun Huang
DisC: Incentive Design for Green, Robust, and Fair Client Self-Participation in OTA Federated Learning
Driss Choukri, Essaid Sabir, Abdelkrim Haqiq
Multipartite FSO/QKD with N-GHZ States for Scalable Secure Group Key Distribution
Yuma Kaminaga, Hoang D. Le, Cuong T. Nguyen et al.