Most methods for dimensionality reduction are based on either tensor representation or local geometry learning. However, the tensor-based methods severely rely on the assumption of global and multilinear structures in high-dimensional data; and the manifold learning methods suffer from the out-of-sample problem. In this paper, bridging the tensor decomposition and manifold learning, we propose a novel method, called Hypergraph Regularized Nonnegative Tensor Factorization (HyperNTF). HyperNTF can preserve nonnegativity in tensor factorization, and uncover the higher-order relationship among the nearest neighborhoods. Clustering analysis with HyperNTF has low computation and storage costs. The experiments on four synthetic data show a desirable property of hypergraph in uncovering the high-order correlation to unfold the curved manifolds. Moreover, the numerical experiments on six real datasets suggest that HyperNTF robustly outperforms state-of-the-art algorithms in clustering analysis.
翻译:多数的维度降低方法都是基于强度代表法或本地几何学。然而,以强度为基础的方法在高维数据中严重依赖全球和多线结构的假设;多元学习方法则受到超模问题的影响。在本论文中,我们提出了一种创新方法,称为超光速分解和多重学习,称为超光速分解非负性非负性分解法(HyperNTF ) 。超超光速NTF可以保存在强度分解中的非惯性,并揭示近邻之间的较高顺序关系。与超超光子和多线结构的组合分析的计算和存储成本较低。对四种合成数据的实验表明,在发现高端相关性以展开曲线形形形图时,高度图具有理想的特性。此外,对六个真实数据集的数值实验表明,超超超NTF在集群分析中强有力地超越了最先进的算法。