Extensive evaluation of image classifiers’ interpretations

Saliency maps are input-resolution matrices used for visualizing local interpretations of image classifiers. Their pixel values reflect the importance of corresponding image locations for the model’s decision. Despite numerous proposals on how to obtain such maps, their evaluation remains an open qu...

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Veröffentlicht in:Neural computing & applications 2024-11, Vol.36 (33), p.20787-20805
Hauptverfasser: Poštić, Suraja, Subašić, Marko
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description Saliency maps are input-resolution matrices used for visualizing local interpretations of image classifiers. Their pixel values reflect the importance of corresponding image locations for the model’s decision. Despite numerous proposals on how to obtain such maps, their evaluation remains an open question. This paper presents a carefully designed experimental procedure along with a set of quantitative interpretation evaluation metrics that rely solely on the original model behavior. Previously noticed evaluation biases have been attenuated by separating locations with high and low values, considering the full saliency map resolution, and using classifiers with diverse accuracies and all the classes in the dataset. We used the proposed evaluation metrics to compare and analyze seven well-known interpretation methods. Our experiments confirm the importance of object background as well as negative saliency map pixels, and we show that the scale of their impact on the model is comparable to that of positive ones. We also demonstrate that a good class score interpretation does not necessarily imply a good probability interpretation. DeepLIFT and LRP- ϵ methods proved most successful altogether, while Grad-CAM and Ablation-CAM performed very poorly, even in the detection of positive relevance. The retention of positive values alone in the latter two methods was responsible for the inaccurate detection of irrelevant locations as well.
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subjects Ablation
Artificial Intelligence
Classification
Computational Biology/Bioinformatics
Computational Science and Engineering
Computer Science
Data Mining and Knowledge Discovery
Decision making
Experiments
Image Processing and Computer Vision
Impact analysis
Methods
Neural networks
Original Article
Pixels
Probability and Statistics in Computer Science
Salience
Variables
title Extensive evaluation of image classifiers’ interpretations
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