Source note3 min read
Non--negative matrix factorization using the extit{R} package extsf{nnmf}
Source
arXiv
arxiv.org/abs/2607.20084v1
Non--negative matrix factorization using the \textit{R} package \textsf{nnmf}
Source
- Source name: arXiv
- Source kind: paper
- Authors / organization: Volkan Sevinç, Nikolas Kontemeniotis, Theodoros Perdikis, Michail Tsagris
- Venue: arXiv: stat.ML
- Published: 2026-07-22
- Collected: 2026-07-23
- URL: http://arxiv.org/abs/2607.20084v1
- PDF: https://arxiv.org/pdf/2607.20084v1
- DOI: UNKNOWN
Plain-Language Brief
This research presents a new R package for Non-negative Matrix Factorization (NMF) and compares it with two other widely used NMF packages in R. The comparison is based on real-world data instead of simulated datasets, focusing on aspects like computational efficiency, convergence behavior, reconstruction accuracy, memory utilization, and the stability of the resulting matrix factorization.
What the Document Says
- The paper discusses Non-negative Matrix Factorization (NMF), a technique used for dimensionality reduction and extraction of latent structures from non-negative data.
- It mentions that NMF has applications in various fields such as bioinformatics, text mining, image analysis, and recommender systems.
- The authors note that there are numerous R packages implementing different optimization strategies and computational frameworks for NMF.
- Despite the availability of these packages, comprehensive evaluations under real-world data conditions are limited, making it challenging for researchers to choose an appropriate package for practical applications.
- The study introduces a new R package for NMF and conducts a systematic performance comparison with two widely available R packages for NMF analysis.
- The evaluation is based on real-world data instead of simulated datasets to better reflect the complexity, heterogeneity, and noise characteristics encountered in practical analytical settings.
- The focus areas for comparison are computational efficiency, convergence behavior, reconstruction accuracy, memory utilization, and the stability of the resulting matrix factorization.
Key Concepts Mentioned
- Non-negative Matrix Factorization
- R package
- dimensionality reduction
- latent structures
- bioinformatics
- text mining
- image analysis
- recommender systems
Claims Made by the Document
- There are numerous R packages for NMF with different optimization strategies and computational frameworks.
- Comprehensive evaluations of these implementations under real-world data conditions are limited.
- The new R package introduced in the study offers a systematic performance comparison with two other widely used R packages for NMF analysis.
- Real-world data is used instead of simulated datasets for the evaluation.
Evidence Used
- Discussion on the popularity and applications of NMF
- Mention of numerous R packages for NMF
- Statement about limited comprehensive evaluations
- Description of the new R package and comparison with others
- Explanation of using real-world data instead of simulated datasets
Methods / Approach
UNKNOWN
Limitations Stated by the Authors
UNKNOWN
Limitations Noted by the Agent
Agent interpretation — not from the source.
UNKNOWN
Open Questions
UNKNOWN
Notes for Future Q&A
May include interpretation. Labeled where it does.
UNKNOWN
Raw Abstract / Excerpt
Non--negative matrix factorization (NMF) has become an established dimensionality reduction technique for extracting latent structures from non--negative data and has found widespread applications in fields such as bioinformatics, text mining, image analysis, and recommender systems. As the popularity of NMF has increased, numerous \textit{R} packages implementing different optimization strategies and computational frameworks have been developed. Despite their widespread availability, comprehensive evaluations of these implementations under real--world data conditions remain limited. Consequently, researchers often lack objective guidance when selecting an appropriate package for practical applications. This study introduces a new \textit{R} package for NMF and offers asystematic performance comparison with two widely available \textit{R} packages for NMF analysis. Rather than relying on simulated datasets, the evaluation is conducted using real--world data to better reflect the complexity, heterogeneity, and noise characteristics encountered in practical analytical settings. The packages are assessed using a consistent experimental framework, with emphasis on computational efficiency, convergence behavior, reconstruction accuracy, memory utilization, and the stability of the resulting matrix factorization.
