Scout: Tailored Collaborative Workload Forecasting for Multi-Tenant Edge Cloud Platforms

Efficient workload forecasting is pivotal for both service orchestration and request dispatching in quality of service (QoS)-oriented multi-tenant edge cloud platforms (MT-ECPs) with a native tiered architecture. However, the spatial-temporal heterogeneity and structural constraints of native tiered architecture present significant challenges for the forecasting in sophisticated MT-ECPs. To tackle these challenges, we propose SCOUT, which is a novel Self-supervised learning-enhanced Cloud-edge collabOrative Unified workload forecasTing framework. First, we design a cross-granularity collaborative mechanism that enables SCOUT to balance accuracy and efficiency in forecasting within the tiered architecture of MT-ECPs. Notably, we employ an auxiliary self-supervised learning method at the cloud that enhances workload pattern representations, making them reflective of both spatial and temporal heterogeneity. Extensive experiments on two real-world workload datasets show that SCOUT outperforms state-of-the-art methods for MT-ECP's workload forecasting, decreases time consumption and reduces communication costs.

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Published
2025-06-08
DOI
https://doi.org/10.1109/icc52391.2025.11160848
Primary Topic
Cloud Computing and Resource Management
Type
article
Field-Weighted Citation Impact
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article

Scout: Tailored Collaborative Workload Forecasting for Multi-Tenant Edge Cloud Platforms

Shaoyuan Huang, Chao Qiu, Tengwen Zhang, Mengwei Xu et al.
Cloud Computing and Resource Management
article

Scout: Tailored Collaborative Workload Forecasting for Multi-Tenant Edge Cloud Platforms

Shaoyuan Huang, Chao Qiu, Tengwen Zhang, Mengwei Xu, Xiaofei Wang, Yuting Li, Cheng Zhang
article en

Abstract

Efficient workload forecasting is pivotal for both service orchestration and request dispatching in quality of service (QoS)-oriented multi-tenant edge cloud platforms (MT-ECPs) with a native tiered architecture. However, the spatial-temporal heterogeneity and structural constraints of native tiered architecture present significant challenges for the forecasting in sophisticated MT-ECPs. To tackle these challenges, we propose SCOUT, which is a novel Self-supervised learning-enhanced Cloud-edge collabOrative Unified workload forecasTing framework. First, we design a cross-granularity collaborative mechanism that enables SCOUT to balance accuracy and efficiency in forecasting within the tiered architecture of MT-ECPs. Notably, we employ an auxiliary self-supervised learning method at the cloud that enhances workload pattern representations, making them reflective of both spatial and temporal heterogeneity. Extensive experiments on two real-world workload datasets show that SCOUT outperforms state-of-the-art methods for MT-ECP's workload forecasting, decreases time consumption and reduces communication costs.

Beijing University of Posts and Telecommunications (CN), Tianjin University (CN), Tianjin University of Finance and Economics (CN)
Openalex Percentile: Top 62%
Cloud Computing and Resource Management
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