The role performed by a protein is directly connected to its physico-chemical structure. How the latter affects the behaviour of these molecules is still an open research topic. In this paper we consider a subset of the Escherichia Coli proteome where each protein is represented through the spectral characteristics of its residue contact network and its physiological function is encoded by a suitable class label. By casting this problem as a machine learning task, we aim at assessing whether a relation exists between such spectral properties and the protein’s function. To this end we adopted a set of supervised learning techniques, possibly optimised by means of genetic algorithms. First results are promising and they show that such high-level spectral representation contains enough information in order to discriminate among functional classes. Our experiments pave the way for further research and analysis.
Martino, Alessio; Maiorino, Enrico; Giuliani, Alessandro; Giampieri, Mauro; Rizzi, Antonello. (2017). Supervised approaches for function prediction of proteins contact networks from topological structure information. In Puneet Sharma, Filippo Maria Bianchi (Eds.), Image Analysis: 20th Scandinavian Conference, SCIA 2017, Tromso, Norway, June 12--14, 2017, Proceedings, Part I (pp. 285-296). Springer. Isbn: 978-3-319-59126-1. Doi: 10.1007/978-3-319-59126-1_24.
Supervised approaches for function prediction of proteins contact networks from topological structure information
MARTINO, ALESSIO
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2017
Abstract
The role performed by a protein is directly connected to its physico-chemical structure. How the latter affects the behaviour of these molecules is still an open research topic. In this paper we consider a subset of the Escherichia Coli proteome where each protein is represented through the spectral characteristics of its residue contact network and its physiological function is encoded by a suitable class label. By casting this problem as a machine learning task, we aim at assessing whether a relation exists between such spectral properties and the protein’s function. To this end we adopted a set of supervised learning techniques, possibly optimised by means of genetic algorithms. First results are promising and they show that such high-level spectral representation contains enough information in order to discriminate among functional classes. Our experiments pave the way for further research and analysis.| File | Dimensione | Formato | |
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