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How do higher R2 values indicate better performance in corrosion prediction models? 


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Higher R2 values in corrosion prediction models indicate better performance by showcasing the degree of variance in the data that is explained by the model. A study on corrosion inhibitors highlights that a reliable prediction model is determined by high R values and low Mean Squared Error (MSE), indicating a robust prediction capability. Similarly, another research emphasizes achieving a coefficient of determination (R2) above 0.99 in artificial neural network models, signifying a strong agreement between simulations and experimental data. Furthermore, a hybrid model developed using machine learning algorithms demonstrates an accuracy of 91.46% in predicting corrosion rates, showcasing the effectiveness of higher R2 values in enhancing predictive capabilities. Overall, higher R2 values signify a better fit of the model to the data, indicating superior performance in corrosion prediction models.

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Higher R2 values in corrosion prediction models, such as FCM-clustered ANFIS, indicate stronger correlation between predicted and actual corrosion rates, reflecting better model performance and accuracy in corrosion inhibition prediction.
Higher R2 values in corrosion prediction models indicate better performance as they signify a stronger correlation between the predicted and actual corrosion rates, with 91.46% accuracy in the Hybrid model.
Higher R2 values indicate better performance in corrosion prediction models as they signify a stronger correlation between predicted and actual corrosion rates, with 91.46% accuracy achieved in the Hybrid model.
Higher R2 values, above 0.99 in this study, indicate strong agreement between predicted and actual data in corrosion prediction models, reflecting accurate simulations of electrochemical behavior at low frequencies.
Higher R2 values in corrosion prediction models indicate better performance as they signify a stronger correlation between predicted and actual values, enhancing the reliability of the neural network model.

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