
pmid: 37346603
pmc: PMC10280283
Data classification is an important aspect of machine learning, as it is utilized to solve issues in a wide variety of contexts. There are numerous classifiers, but there is no single best-performing classifier for all types of data, as the no free lunch theorem implies. Topological data analysis is an emerging topic concerned with the shape of data. One of the key tools in this field for analyzing the shape or topological properties of a dataset is persistent homology, an algebraic topology-based method for estimating the topological features of a space of points that persists across several resolutions. This study proposes a supervised learning classification algorithm that makes use of persistent homology between training data classes in the form of persistence diagrams to predict the output category of new observations. Validation of the developed algorithm was performed on real-world and synthetic datasets. The performance of the proposed classification algorithm on these datasets was compared to that of the most widely used classifiers. Validation runs demonstrated that the proposed persistent homology classification algorithm performed at par if not better than the majority of classifiers considered.
Advanced Techniques in Bioimage Analysis and Microscopy, Artificial intelligence, Phenotypic Profiling, Biophysics, Topological data analysis, Pattern recognition (psychology), Biochemistry, Gene, Classification algorithm, Computational topology, Statistical Topology, Biochemistry, Genetics and Molecular Biology, Machine learning, FOS: Mathematics, Persistent homology, Persistent Homology, Shape Analysis, Topological Methods, Life Sciences, QA75.5-76.95, Computer science, Algorithm, Homology (biology), Chemistry, Topological Data Analysis in Science and Engineering, Algorithms and Analysis of Algorithms, Computational Theory and Mathematics, Electronic computers. Computer science, Mathematical physics, Computer Science, Physical Sciences, Classifier (UML), Supervised learning, Mathematics, Scalar field
Advanced Techniques in Bioimage Analysis and Microscopy, Artificial intelligence, Phenotypic Profiling, Biophysics, Topological data analysis, Pattern recognition (psychology), Biochemistry, Gene, Classification algorithm, Computational topology, Statistical Topology, Biochemistry, Genetics and Molecular Biology, Machine learning, FOS: Mathematics, Persistent homology, Persistent Homology, Shape Analysis, Topological Methods, Life Sciences, QA75.5-76.95, Computer science, Algorithm, Homology (biology), Chemistry, Topological Data Analysis in Science and Engineering, Algorithms and Analysis of Algorithms, Computational Theory and Mathematics, Electronic computers. Computer science, Mathematical physics, Computer Science, Physical Sciences, Classifier (UML), Supervised learning, Mathematics, Scalar field
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