Topology and Content Co-Alignment Graph Convolutional Learning

被引:9
|
作者
Shi, Min [1 ]
Tang, Yufei [1 ]
Zhu, Xingquan [1 ]
机构
[1] Florida Atlantic Univ, Dept Comp & Elect Engn & Comp Sci, Boca Raton, FL 33431 USA
基金
美国国家科学基金会;
关键词
Network topology; Topology; Training; Learning systems; Convolution; Semantics; Noise measurement; Graph convolutional learning; graph mining; network embedding; network representation learning; neural networks;
D O I
10.1109/TNNLS.2021.3084125
中图分类号
TP18 [人工智能理论];
学科分类号
081104 ; 0812 ; 0835 ; 1405 ;
摘要
In traditional graph neural networks (GNNs), graph convolutional learning is carried out through topology-driven recursive node content aggregation for network representation learning. In reality, network topology and node content each provide unique and important information, and they are not always consistent because of noise, irrelevance, or missing links between nodes. A pure topology-driven feature aggregation approach between unaligned neighborhoods may deteriorate learning from nodes with poor structure-content consistency, due to the propagation of incorrect messages over the whole network. Alternatively, in this brief, we advocate a co-alignment graph convolutional learning (CoGL) paradigm, by aligning topology and content networks to maximize consistency. Our theme is to enforce the learning from the topology network to be consistent with the content network while simultaneously optimizing the content network to comply with the topology for optimized representation learning. Given a network, CoGL first reconstructs a content network from node features then co-aligns the content network and the original network through a unified optimization goal with: 1) minimized content loss; 2) minimized classification loss; and 3) minimized adversarial loss. Experiments on six benchmarks demonstrate that CoGL achieves comparable and even better performance compared with existing state-of-the-art GNN models.
引用
收藏
页码:7899 / 7907
页数:9
相关论文
共 50 条
  • [41] Telescope Co-Alignment Design and Its Performance On-Orbit of Solar Observational Satellite "Hinode"
    Minesugi, Kenji
    Inoue, Toshio
    Tabata, Masaki
    Shimizu, Toshifumi
    Sakao, Taro
    Katsukawa, Yukio
    [J]. TRANSACTIONS OF THE JAPAN SOCIETY FOR AERONAUTICAL AND SPACE SCIENCES, 2013, 56 (02) : 104 - 111
  • [42] SmartTRO: Optimizing topology robustness for Internet of Things via deep reinforcement learning with graph convolutional networks
    Peng, Yabin
    Liu, Caixia
    Liu, Shuxin
    Liu, Yuchen
    Wu, Yiteng
    [J]. COMPUTER NETWORKS, 2022, 218
  • [43] Graph Convolutional Network-Based Topology Embedded Deep Reinforcement Learning for Voltage Stability Control
    Hossain, Ramij R.
    Huang, Qiuhua
    Huang, Renke
    [J]. IEEE TRANSACTIONS ON POWER SYSTEMS, 2021, 36 (05) : 4848 - 4851
  • [44] Learning Connectivity with Graph Convolutional Networks
    Sahbi, Hichem
    [J]. 2020 25TH INTERNATIONAL CONFERENCE ON PATTERN RECOGNITION (ICPR), 2021, : 9996 - 10003
  • [45] Graph Convolutional Extreme Learning Machine
    Zhang, Zijia
    Cai, Yaoming
    Gong, Wenyin
    Liu, Xiaobo
    Cai, Zhihua
    [J]. 2020 INTERNATIONAL JOINT CONFERENCE ON NEURAL NETWORKS (IJCNN), 2020,
  • [46] Graph to Graph: a Topology Aware Approach for Graph Structures Learning and Generation
    Sun, Mingming
    Li, Ping
    [J]. 22ND INTERNATIONAL CONFERENCE ON ARTIFICIAL INTELLIGENCE AND STATISTICS, VOL 89, 2019, 89
  • [47] GTCAlign: Global Topology Consistency-Based Graph Alignment
    Wang, Chenxu
    Jiang, Peijing
    Zhang, Xiangliang
    Wang, Pinghui
    Qin, Tao
    Guan, Xiaohong
    [J]. IEEE TRANSACTIONS ON KNOWLEDGE AND DATA ENGINEERING, 2024, 36 (05) : 2009 - 2025
  • [48] Topology preserving maps as aggregations for Graph Convolutional Neural Networks
    Frazzetto, Paolo
    Pasa, Luca
    Navarin, Nicolo
    Sperduti, Alessandro
    [J]. 38TH ANNUAL ACM SYMPOSIUM ON APPLIED COMPUTING, SAC 2023, 2023, : 536 - 543
  • [49] Automated co-alignment of coherent fiber laser arrays via active phase-locking
    Goodno, Gregory D.
    Weiss, S. Benjamin
    [J]. OPTICS EXPRESS, 2012, 20 (14): : 14945 - 14953
  • [50] Atmospheric LIDAR co-alignment sensor: flight model electro-optical characterization campaign
    Valverde Guijarro, Angel Luis
    Belenguer Davila, Tomas
    Laguna, Hugo
    Ramos Zapata, Gonzalo
    [J]. LIDAR TECHNOLOGIES, TECHNIQUES, AND MEASUREMENTS FOR ATMOSPHERIC REMOTE SENSING XIII, 2017, 10429