Abstract

Nonnegative Matrix Factorization (NMF) is a significant big data analysis technique. However, standard NMF regularized by simple graph does not have discriminative function, and traditional graph models cannot accurately reflect the problem of multigeometry information between data. To solve the above problem, this paper proposed a new method called Hypergraph Regularized Discriminative Nonnegative Matrix Factorization (HDNMF), which captures intrinsic geometry by constructing hypergraphs rather than simple graphs. The introduction of the hypergraph method allows high-order relationships between samples to be considered, and the introduction of label information enables the method to have discriminative effect. Both the hypergraph Laplace and the discriminative label information are utilized together to learn the projection matrix in the standard method. In addition, we offered a corresponding multiplication update solution for the optimization. Experiments indicate that the method proposed is more effective by comparing with the earlier methods.

Highlights

  • With the development of sequencing technology [1] and gene detection technology [2], a lot of genomic data have been collected

  • To solve the above problem, this paper proposed a new method called Hypergraph Regularized Discriminative Nonnegative Matrix Factorization (HDNMF), which captures intrinsic geometry by constructing hypergraphs rather than simple graphs

  • The Nonnegative Matrix Factorization (NMF) [5] method is capable of learning the various parts of the face and the semantic features of the text

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Summary

Introduction

With the development of sequencing technology [1] and gene detection technology [2], a lot of genomic data have been collected. Among the various dimensionality reduction methods, NMF and its improved NMF-based methods are widely used in the field of gene data processing. It is intended to find two nonnegative matrices to learn the part-based representation of the standard data itself. NMF has been popular for decades and successfully implemented in a wide range of fields, including robotics control [6], image analysis [7], and biomedical engineering [8]. To this end, we will provide a brief introduction to the relevant methods

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