Adaptive Deep Fuzzy Neural Network With Multi-Headed Self-Attention for Improving Performance of Social Network Representation Learning and Link Prediction

IF 1.5 4区 计算机科学 Q3 COMPUTER SCIENCE, SOFTWARE ENGINEERING
Linh Nguyen Thi My, Vu Nguyen, Tham Vo
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Abstract

Link prediction has long been a fundamental task in graph data analysis, aimed at identifying potential or missing connections between nodes. This task is particularly important for understanding social dynamics and improving the robustness of networks. However, existing graph learning methods often struggle with modeling complex structures, especially in social networks where data is noisy, uncertain, as well as multi-faceted. Most traditional graph embedding architectures are limited in their ability to handle noise and effectively represent multi-view information. Likewise, there are several graph neural networks (GNNs) face challenges in integrating diverse structural perspectives and managing uncertainty, which leads to subpar performance in link prediction tasks. To overcome these challenges, we propose a novel model called AFGRL which is an attention-driven fuzzy graph representation learning. Our proposed AFGRL combines multiple types of GNNs for multi-view embedding with a multi-headed attention-enhanced fuzzy neural network. This design enables our AFGRL model to better learn richer, as well as more expressive graph representations while effectively managing uncertainty and noise. The attention mechanism integrated into our AFGRL model allows it to focus on various structural aspects of the graph—while the fuzzy logic component captures ambiguity inherent in social network data. Our model is particularly tailored for online social networks—where user relationships are dynamic and characterized by varying degrees of trust and influence. We evaluate AFGRL on several real-world and benchmark datasets, demonstrating its superior performance in link prediction compared to state-of-the-art baselines. The results confirm that our AFGRL model not only enhances predictive accuracy but also provides robust and meaningful structural representations; as a result, highlighting the value of integrating attention and fuzzy logic into graph learning frameworks.

基于多头自注意的自适应深度模糊神经网络提高社会网络表征学习和链接预测性能
链接预测一直是图数据分析中的一项基本任务,旨在识别节点之间潜在的或缺失的连接。这项任务对于理解社会动态和提高网络的鲁棒性尤为重要。然而,现有的图学习方法往往难以建模复杂的结构,特别是在社交网络中,其中的数据是嘈杂的,不确定的,以及多方面的。大多数传统的图嵌入架构在处理噪声和有效表示多视图信息的能力方面受到限制。同样,有一些图神经网络(gnn)在整合不同的结构视角和管理不确定性方面面临挑战,这导致链路预测任务的性能欠佳。为了克服这些挑战,我们提出了一种新颖的注意力驱动模糊图表示学习模型AFGRL。我们提出的AFGRL将用于多视图嵌入的多种gnn与多头注意力增强模糊神经网络相结合。这种设计使我们的AFGRL模型能够更好地学习更丰富、更具表现力的图形表示,同时有效地管理不确定性和噪声。注意力机制集成到我们的AFGRL模型中,使其能够专注于图的各个结构方面,而模糊逻辑组件捕获社会网络数据中固有的模糊性。我们的模型是专门为在线社交网络量身定制的,在社交网络中,用户关系是动态的,并以不同程度的信任和影响力为特征。我们在几个真实世界和基准数据集上评估了AFGRL,与最先进的基线相比,证明了它在链路预测方面的优越性能。结果表明,AFGRL模型不仅提高了预测精度,而且提供了鲁棒性和有意义的结构表征;因此,强调了将注意力和模糊逻辑集成到图学习框架中的价值。
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来源期刊
Concurrency and Computation-Practice & Experience
Concurrency and Computation-Practice & Experience 工程技术-计算机:理论方法
CiteScore
5.00
自引率
10.00%
发文量
664
审稿时长
9.6 months
期刊介绍: Concurrency and Computation: Practice and Experience (CCPE) publishes high-quality, original research papers, and authoritative research review papers, in the overlapping fields of: Parallel and distributed computing; High-performance computing; Computational and data science; Artificial intelligence and machine learning; Big data applications, algorithms, and systems; Network science; Ontologies and semantics; Security and privacy; Cloud/edge/fog computing; Green computing; and Quantum computing.
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