GACL: Graph Attention Collaborative Learning for Temporal QoS Prediction

Accurate prediction of temporal QoS is crucial for maintaining service reliability and enhancing user satisfaction in dynamic service-oriented environments. However, current methods often neglect high-order latent collaborative relationships and fail to dynamically adjust feature learning for specific user-service invocations, which are critical for precise feature extraction within each time slice. Moreover, the prevalent use of RNNs for modeling temporal feature evolution patterns is constrained by their inherent difficulty in managing long-range dependencies, thereby limiting the detection of long-term QoS trends across multiple time slices. These shortcomings dramatically degrade the performance of temporal QoS prediction. To address the two issues, we propose a novel Graph Attention Collaborative Learning (GACL) framework for temporal QoS prediction. Building on a dynamic user-service invocation graph to comprehensively model historical interactions, it designs a target-prompt graph attention network to extract deep latent features of users and services at each time slice, considering implicit target-neighboring collaborative relationships and historical QoS values. Additionally, a multi-layer Transformer encoder is introduced to uncover temporal feature evolution patterns, enhancing temporal QoS prediction. Extensive experiments on the WS-DREAM dataset demonstrate that GACL significantly outperforms state-of-the-art methods for temporal QoS prediction across multiple evaluation metrics, achieving the improvements of up to 38.80%.

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Publication Details

Journal
IEEE Transactions on Network and Service Management
Published
2025-05-15
DOI
https://doi.org/10.1109/tnsm.2025.3570464
Citations
3
Primary Topic
Advanced Clustering Algorithms Research
Type
article
Field-Weighted Citation Impact
7.44

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article

GACL: Graph Attention Collaborative Learning for Temporal QoS Prediction

Shengxiang Hu, Bofeng Zhang, Guobing Zou, Shaogang Wu et al.
3 citations
IEEE Transactions on Network and Service Management
Advanced Clustering Algorithms Research
7.44
article

GACL: Graph Attention Collaborative Learning for Temporal QoS Prediction

Shengxiang Hu, Bofeng Zhang, Guobing Zou, Shaogang Wu, Yanglan Gan, Yixin Chen, Shiyi Lin
article en
3 citations

Abstract

Accurate prediction of temporal QoS is crucial for maintaining service reliability and enhancing user satisfaction in dynamic service-oriented environments. However, current methods often neglect high-order latent collaborative relationships and fail to dynamically adjust feature learning for specific user-service invocations, which are critical for precise feature extraction within each time slice. Moreover, the prevalent use of RNNs for modeling temporal feature evolution patterns is constrained by their inherent difficulty in managing long-range dependencies, thereby limiting the detection of long-term QoS trends across multiple time slices. These shortcomings dramatically degrade the performance of temporal QoS prediction. To address the two issues, we propose a novel Graph Attention Collaborative Learning (GACL) framework for temporal QoS prediction. Building on a dynamic user-service invocation graph to comprehensively model historical interactions, it designs a target-prompt graph attention network to extract deep latent features of users and services at each time slice, considering implicit target-neighboring collaborative relationships and historical QoS values. Additionally, a multi-layer Transformer encoder is introduced to uncover temporal feature evolution patterns, enhancing temporal QoS prediction. Extensive experiments on the WS-DREAM dataset demonstrate that GACL significantly outperforms state-of-the-art methods for temporal QoS prediction across multiple evaluation metrics, achieving the improvements of up to 38.80%.

IEEE Transactions on Network and Service ManagementVol. 22(4)
Shanghai Polytechnic University (CN), Shanghai University of Engineering Science (CN), Donghua University (CN), Washington University in St. Louis (US)
Natural Science Foundation of Shanghai, National Natural Science Foundation of China
Openalex Percentile: Top 3%
Advanced Clustering Algorithms Research
7.44
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