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Autoignition temperature: comprehensive data analysis and predictive models

Autoignition temperature: comprehensive data analysis and predictive models
International audience; Here we report a new predictive model for autoignition temperature (AIT), an important physical parameter widely used to assess potential safety hazards of combustible materials. Available structure -AIT data extracted from different sources were critically analysed. Support vector regression (SVR) models on different data subsets were built in order to identify a reliable compound set on which a realistic model could be built. This led to a selection of the dataset containing 875 compounds annotated with AIT values. The thereupon-based SVR model performs reasonably well in cross-validation with the determination coefficient r 2 = 0.77 and mean absolute error MAE = 37.8°C. External validation on 20 industrial compounds missing in the training set confirmed its good predic-tive power (MAE = 28.7°C). ARTICLE HISTORY
- Université Paris Diderot France
- University of Strasbourg France
Microsoft Academic Graph classification: Computer science Mean absolute error computer.software_genre Set (abstract data type) Training set External validation Autoignition temperature Support vector machine Predictive power Generative topographic mapping Data mining computer
Data Analysis, Chemical Phenomena, fragment descriptors, Quantitative Structure-Property Prediction (QSPR), Quantitative Structure-Activity Relationship, Bioengineering, Fires, [CHIM.GENI]Chemical Sciences/Chemical engineering, autoignition temperature, Drug Discovery, support vector regression, Temperature, generative topographic mapping, General Medicine, Models, Chemical, Quantitative structure- property relationship (QSPR), Molecular Medicine, [CHIM.CHEM]Chemical Sciences/Cheminformatics
Data Analysis, Chemical Phenomena, fragment descriptors, Quantitative Structure-Property Prediction (QSPR), Quantitative Structure-Activity Relationship, Bioengineering, Fires, [CHIM.GENI]Chemical Sciences/Chemical engineering, autoignition temperature, Drug Discovery, support vector regression, Temperature, generative topographic mapping, General Medicine, Models, Chemical, Quantitative structure- property relationship (QSPR), Molecular Medicine, [CHIM.CHEM]Chemical Sciences/Cheminformatics
Microsoft Academic Graph classification: Computer science Mean absolute error computer.software_genre Set (abstract data type) Training set External validation Autoignition temperature Support vector machine Predictive power Generative topographic mapping Data mining computer
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International audience; Here we report a new predictive model for autoignition temperature (AIT), an important physical parameter widely used to assess potential safety hazards of combustible materials. Available structure -AIT data extracted from different sources were critically analysed. Support vector regression (SVR) models on different data subsets were built in order to identify a reliable compound set on which a realistic model could be built. This led to a selection of the dataset containing 875 compounds annotated with AIT values. The thereupon-based SVR model performs reasonably well in cross-validation with the determination coefficient r 2 = 0.77 and mean absolute error MAE = 37.8°C. External validation on 20 industrial compounds missing in the training set confirmed its good predic-tive power (MAE = 28.7°C). ARTICLE HISTORY