2012Unpublished venueRequires access

QSAR Study of Fluorinated phenols by ANN

Huang Bao-jun

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Abstract

To set up the quantitative structure-activity relationship(QSAR) model on 16 fluorinated phenols by the artificial neural network(ANN) based on the back propagation algorithm.For the ANN method,when using the quantum chemical and physical chemical parameters about structure as the inputs of the neural network and the acute toxicities as the outputs of the neural network,the correlation coefficient was 0.999 8,the leave one out cross-validation regression coefficient was 0.981 8,the standard error was 0.01,the correlation coefficient of the test set was 0.993 6 and the absolute values of residual were less than 0.04.In order to make contrast,the QSAR model was set up by multiple linear regressions(MLR) method.For the model built by MLR,the correlation coefficient was 0.980 2,the standard error was 0.119,the absolute values of residual were less than 0.28 and the correlation coefficient of the test set was 0.980 3.The results showed that the performance of neural network method was better than that of MLR method.

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What this paper is about

To set up the quantitative structure-activity relationship(QSAR) model on 16 fluorinated phenols by the artificial neural network(ANN) based on the back propagation algorithm.For the ANN method,when using the quantum chemical and physical chemical parameters about structure as the inputs of the neural network and the acute toxicities as the outputs of the neural network,the correlation coefficient was 0.999 8,the leave one out cross-validation regression coefficient was 0.981 8,the standard error was 0.01,the correlation coefficient of the test set was 0.993 6 and the absolute values of residual were less than 0.04.In order to make contrast,the QSAR model was set up by multiple linear regressions(MLR) method.For the model built by MLR,the correlation coefficient was 0.980 2,the standard error was 0.119,the absolute values of residual were less than 0.28 and the correlation coefficient of the test set was 0.980 3.The results showed that the performance of neural network method was better than that of MLR method.

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Available abstract

To set up the quantitative structure-activity relationship(QSAR) model on 16 fluorinated phenols by the artificial neural network(ANN) based on the back propagation algorithm.For the ANN method,when using the quantum chemical and physical chemical parameters about structure as the inputs of the neural network and the acute toxicities as the outputs of the neural network,the correlation coefficient was 0.999 8,the leave one out cross-validation regression coefficient was 0.981 8,the standard error was 0.01,the correlation coefficient of the test set was 0.993 6 and the absolute values of residual were less than 0.04.In order to make contrast,the QSAR model was set up by multiple linear regressions(MLR) method.For the model built by MLR,the correlation coefficient was 0.980 2,the standard error was 0.119,the absolute values of residual were less than 0.28 and the correlation coefficient of the test set was 0.980 3.The results showed that the performance of neural network method was better than that of MLR method.

Key concepts: Quantitative structure–activity relationship, Correlation coefficient, Artificial neural network, Linear regression, Test set, Residual, Mathematics, Coefficient of determination

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