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Prof. Mahmoud Ibrahim Moussa :: Publications:

Title:
Predicting Activity Approach based on New Atoms Similarity Kernel Function
Authors: Ahmed H. Abu El-Atta, Mahmoud I. Moussa & Aboul Ella Hassanien
Year: 2021
Keywords: Not Available
Journal: Journal of molecular graphics & modelling
Volume: 60
Issue: Not Available
Pages: 55-62
Publisher: Not Available
Local/International: International
Paper Link:
Full paper Mahmoud Ibrahim Moussa_Predicting activity approach based on new atoms similarity kernel.pdf
Supplementary materials Not Available
Abstract:

Drug design is a high cost and long term process. To reduce time and costs for drugs discoveries, new techniques are needed. Chemoinformatics field implements the informational techniques and computer science like machine learning and graph theory to discover the chemical compounds properties, such as toxicity or biological activity. This is done through analyzing their molecular structure (molecular graph). To overcome this problem there is an increasing need for algorithms to analyze and classify graph data to predict the activity of molecules. Kernels methods provide a powerful framework which combines machine learning with graph theory techniques. These kernels methods have led to impressive performance results in many several chemoinformatics problems like biological activity prediction. This paper presents a new approach based on kernel functions to solve activity prediction problem for chemical compounds. First we encode all atoms depending on their neighbors then we use these codes to find a relationship between those atoms each other. Then we use relation between different atoms to find similarity between chemical compounds. The proposed approach was compared with many other classification methods and the results show competitive accuracy with these methods.

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