mlsanityData to 7 Oct 2026

Increasing Interpretability of Neural Networks By Approximating Human Visual Saliency

arXiv 2410.16115 ↗First posted 21 Oct 2024cs.CVcited by 1

Not on the map. Why?

Abstract (arXiv)

Understanding specifically where a model focuses on within an image is critical for human interpretability of the decision-making process. Deep learning-based solutions are prone to learning coincidental correlations in training datasets, causing over-fitting and reducing the explainability. Recent advances have shown that guiding models to human-defined regions of saliency within individual images significantly increases performance and interpretability. Human-guided models also exhibit greater generalization capabilities, as coincidental dataset features are avoided. Results show that models trained with saliency incorporation display an increase in interpretability of up to 30% over models trained without saliency information. The collection of this saliency information, however, can be costly, laborious and in some cases infeasible. To address this limitation, we propose a combination strategy of saliency incorporation and active learning to reduce the human annotation data required by 80% while maintaining the interpretability and performance increase from human saliency. Extensive experimentation outlines the effectiveness of the proposed approach across five public datasets and six active learning criteria.

Key facts. Cited by 1 paper in the map (data through 7 Oct 2026). Builds on 25 of its 52 references that are in the map. First posted on arXiv 21 Oct 2024.

Builds on

25 of 52 references.

References · 25

  1. 2015Deep Residual Learning for Image Recognitioncited by 51,809
  2. 2021Swin Transformer: Hierarchical Vision Transformer using Shifted Windowscited by 12,082
  3. 2016Grad-CAM: Visual Explanations from Deep Networks via Gradient-based Localizationcited by 6,690
  4. 2015Learning Deep Features for Discriminative Localizationcited by 2,430
  5. 2016Xception: Deep Learning with Depthwise Separable Convolutionscited by 2,320
  6. 2017A Survey on Deep Learning in Medical Image Analysiscited by 1,182
  7. 2017Grad-CAM++: Improved Visual Explanations for Deep Convolutional Networkscited by 936
  8. 2018RISE: Randomized Input Sampling for Explanation of Black-box Modelscited by 825
  9. 2019Score-CAM: Score-Weighted Visual Explanations for Convolutional Neural Networkscited by 575
  10. 2020A Survey of Deep Active Learningcited by 547
  11. 2018Deep Learning for Generic Object Detection: A Surveycited by 392
  12. 2018Fairness Without Demographics in Repeated Loss Minimizationcited by 363
13 more
  1. 2018Deep Face Recognition: A Surveycited by 275
  2. 2020Eigen-CAM: Class Activation Map using Principal Componentscited by 188
  3. 2014Salient Object Detection: A Surveycited by 98
  4. 2021Large-scale Unsupervised Semantic Segmentationcited by 98
  5. 2019Learning From Less Data: A Unified Data Subset Selection and Active Learning Framework for Computer Visioncited by 64
  6. 2022Harmonizing the object recognition strategies of deep neural networks with humanscited by 59
  7. 2021CYBORG: Blending Human Saliency Into the Loss Improves Deep Learningcited by 33
  8. 2021Human-Aided Saliency Maps Improve Generalization of Deep Learningcited by 27
  9. 2021Vessel-CAPTCHA: an efficient learning framework for vessel annotation and segmentationcited by 12
  10. 2019Measuring Human Perception to Improve Handwritten Document Transcriptioncited by 11
  11. 2022Human Saliency-Driven Patch-based Matching for Interpretable Post-mortem Iris Recognitioncited by 11
  12. 2023Teaching AI to Teach: Leveraging Limited Human Salience Data Into Unlimited Saliency-Based Trainingcited by 8
  13. 2022Using Human Perception to Regularize Transfer Learningcited by 6

Built on by

Cited by year (2026 to 7 Oct)

Citing papers per year: 2026: 1.

1 paper.