Extraction and Optimization of Fuzzy Protein Sequences Classification Rules Using GRBF Neural Networks

Traditionally, two protein sequences are classified into the same class if their feature patterns have high homology. These feature patterns were originally extracted by sequence alignment algorithms, which measure similarity between an unseen protein sequence and identified protein sequences. Neura...

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Main Authors: Wang, D., Lee, N., Dillon, Tharam S.
Format: Journal Article
Published: Asia-Pacific Neural Network Assembly 2003
Online Access:http://hdl.handle.net/20.500.11937/31890
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author Wang, D.
Lee, N.
Dillon, Tharam S.
author_facet Wang, D.
Lee, N.
Dillon, Tharam S.
author_sort Wang, D.
building Curtin Institutional Repository
collection Online Access
description Traditionally, two protein sequences are classified into the same class if their feature patterns have high homology. These feature patterns were originally extracted by sequence alignment algorithms, which measure similarity between an unseen protein sequence and identified protein sequences. Neural network approaches, while reasonably accurate at classification, give no information about the relationship between the unseen case and the classified items that is useful to biologist. In contrast, in this paper we use a generalized radial basis function (GRBF) neural network architecture that generates fuzzy classification rules that could be used for further knowledge discovery. Our proposed techniques were evaluated using protein sequences with ten classes of super-families downloaded from a public domain database, and the results compared favorably with other standard machine learning techniques.
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institution Curtin University Malaysia
institution_category Local University
last_indexed 2025-11-14T08:25:39Z
publishDate 2003
publisher Asia-Pacific Neural Network Assembly
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spelling curtin-20.500.11937-318902017-01-30T13:27:59Z Extraction and Optimization of Fuzzy Protein Sequences Classification Rules Using GRBF Neural Networks Wang, D. Lee, N. Dillon, Tharam S. Traditionally, two protein sequences are classified into the same class if their feature patterns have high homology. These feature patterns were originally extracted by sequence alignment algorithms, which measure similarity between an unseen protein sequence and identified protein sequences. Neural network approaches, while reasonably accurate at classification, give no information about the relationship between the unseen case and the classified items that is useful to biologist. In contrast, in this paper we use a generalized radial basis function (GRBF) neural network architecture that generates fuzzy classification rules that could be used for further knowledge discovery. Our proposed techniques were evaluated using protein sequences with ten classes of super-families downloaded from a public domain database, and the results compared favorably with other standard machine learning techniques. 2003 Journal Article http://hdl.handle.net/20.500.11937/31890 Asia-Pacific Neural Network Assembly restricted
spellingShingle Wang, D.
Lee, N.
Dillon, Tharam S.
Extraction and Optimization of Fuzzy Protein Sequences Classification Rules Using GRBF Neural Networks
title Extraction and Optimization of Fuzzy Protein Sequences Classification Rules Using GRBF Neural Networks
title_full Extraction and Optimization of Fuzzy Protein Sequences Classification Rules Using GRBF Neural Networks
title_fullStr Extraction and Optimization of Fuzzy Protein Sequences Classification Rules Using GRBF Neural Networks
title_full_unstemmed Extraction and Optimization of Fuzzy Protein Sequences Classification Rules Using GRBF Neural Networks
title_short Extraction and Optimization of Fuzzy Protein Sequences Classification Rules Using GRBF Neural Networks
title_sort extraction and optimization of fuzzy protein sequences classification rules using grbf neural networks
url http://hdl.handle.net/20.500.11937/31890