CANDECOMP/PARAFAC Decomposition of High-Order Tensors Through Tensor Reshaping

被引:39
|
作者
Phan, Anh-Huy [1 ]
Tichavsky, Petr [2 ]
Cichocki, Andrzej [1 ,3 ]
机构
[1] RIKEN, Lab Adv Brain Signal Proc, Brain Sci Inst, Wako, Saitama 3510198, Japan
[2] Acad Sci Czech Republ, Inst Informat Theory & Automat, CR-18208 Prague, Czech Republic
[3] Polish Acad Sci, Syst Res Inst, PL-01447 Warsaw, Poland
关键词
Tensor factorization; canonical decomposition; PARAFAC; ALS; structured CPD; tensor unfolding; Cramer-Rao induced bound (CRIB); Cramer-Rao lower bound (CRLB); UNDERDETERMINED MIXTURES; BLIND IDENTIFICATION; POLYADIC DECOMPOSITION; LEAST-SQUARES; UNIQUENESS; ALGORITHMS; PARAFAC; RANK; APPROXIMATION; COMPLEXITY;
D O I
10.1109/TSP.2013.2269046
中图分类号
TM [电工技术]; TN [电子技术、通信技术];
学科分类号
0808 ; 0809 ;
摘要
In general, algorithms for order-3 CANDECOMP/PARAFAC (CP), also coined canonical polyadic decomposition (CPD), are easy to implement and can be extended to higher order CPD. Unfortunately, the algorithms become computationally demanding, and they are often not applicable to higher order and relatively large scale tensors. In this paper, by exploiting the uniqueness of CPD and the relation of a tensor in Kruskal form and its unfolded tensor, we propose a fast approach to deal with this problem. Instead of directly factorizing the high order data tensor, the method decomposes an unfolded tensor with lower order, e.g., order-3 tensor. On the basis of the order-3 estimated tensor, a structured Kruskal tensor, of the same dimension as the data tensor, is then generated, and decomposed to find the final solution using fast algorithms for the structured CPD. In addition, strategies to unfold tensors are suggested and practically verified in the paper.
引用
收藏
页码:4847 / 4860
页数:14
相关论文
共 39 条
  • [31] Decomposition of conditional probability for high-order symbolic Markov chains
    Melnik, S. S.
    Usatenko, O. V.
    PHYSICAL REVIEW E, 2017, 96 (01)
  • [32] A High-Order Tensor Completion Algorithm Based on Fully-Connected Tensor Network Weighted Optimization
    Yang, Peilin
    Huang, Yonghui
    Qiu, Yuning
    Sun, Weijun
    Zhou, Guoxu
    PATTERN RECOGNITION AND COMPUTER VISION, PT I, PRCV 2022, 2022, 13534 : 411 - 422
  • [33] Fast Circulant Tensor Power Method for High-Order Principal Component Analysis
    Kim, Taehyeon
    Choe, Yoonsik
    IEEE ACCESS, 2021, 9 : 62478 - 62492
  • [34] Minimizing Low-Rank Models of High-Order Tensors: Hardness, Span, Tight Relaxation, and Applications
    Sidiropoulos, Nicholas D.
    Karakasis, Paris A.
    Konar, Aritra
    IEEE TRANSACTIONS ON SIGNAL PROCESSING, 2024, 72 : 129 - 142
  • [35] Nonconvex Robust High-Order Tensor Completion Using Randomized Low-Rank Approximation
    Qin, Wenjin
    Wang, Hailin
    Zhang, Feng
    Ma, Weijun
    Wang, Jianjun
    Huang, Tingwen
    IEEE TRANSACTIONS ON IMAGE PROCESSING, 2024, 33 : 2835 - 2850
  • [36] Parallel Domain Decomposition Methods for High-Order Finite Element Solutions of the Helmholtz Problem
    Cha, Youngjoon
    Kim, Seongjai
    ALGORITHMS AND ARCHITECTURES FOR PARALLEL PROCESSING, PT 2, PROCEEDINGS, 2010, 6082 : 136 - +
  • [37] A Time-Aware Personalized Point-of-Interest Recommendation via High-Order Tensor Factorization
    Li, Xin
    Jiang, Mingming
    Hong, Huiting
    Liao, Lejian
    ACM TRANSACTIONS ON INFORMATION SYSTEMS, 2017, 35 (04)
  • [38] Tensor Completion Using High-Order Spatial Delay Embedding for IoT Multi-Attribute Data Reconstruction
    Zhang, Xiaoyue
    He, Jingfei
    Liu, Xiaotong
    IEEE TRANSACTIONS ON SIGNAL AND INFORMATION PROCESSING OVER NETWORKS, 2024, 10 : 715 - 728
  • [39] Multi-Dimensional Visual Data Restoration: Uncovering the Global Discrepancy in Transformed High-Order Tensor Singular Values
    He, Chengxun
    Xu, Yang
    Wu, Zebin
    Zheng, Shangdong
    Wei, Zhihui
    IEEE TRANSACTIONS ON IMAGE PROCESSING, 2024, 33 : 6409 - 6424