mlsanityData to 7 Oct 2026

Dead Pixel Test Using Effective Receptive Field

arXiv 2108.13576 ↗First posted 31 Aug 2021cs.CVcited by 18

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Abstract (arXiv)

Deep neural networks have been used in various fields, but their internal behavior is not well known. In this study, we discuss two counterintuitive behaviors of convolutional neural networks (CNNs). First, we evaluated the size of the receptive field. Previous studies have attempted to increase or control the size of the receptive field. However, we observed that the size of the receptive field does not describe the classification accuracy. The size of the receptive field would be inappropriate for representing superiority in performance because it reflects only depth or kernel size and does not reflect other factors such as width or cardinality. Second, using the effective receptive field, we examined the pixels contributing to the output. Intuitively, each pixel is expected to equally contribute to the final output. However, we found that there exist pixels in a partially dead state with little contribution to the output. We reveal that the reason for this lies in the architecture of CNN and discuss solutions to reduce the phenomenon. Interestingly, for general classification tasks, the existence of dead pixels improves the training of CNNs. However, in a task that captures small perturbation, dead pixels degrade the performance. Therefore, the existence of these dead pixels should be understood and considered in practical applications of CNN.

Key facts. Cited by 18 papers in the map (data through 7 Oct 2026). Builds on 38 of its 54 references that are in the map. First posted on arXiv 31 Aug 2021.

Builds on

38 of 54 references.

References · 38

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26 more
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Cited by year (2026 to 7 Oct)

Citing papers per year: 2022: 5; 2023: 5; 2024: 4; 2025: 2; 2026: 2.

18 papers.

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  1. 2022Scaling Up Your Kernels to 31x31: Revisiting Large Kernel Design in CNNscited by 155
  2. 2022More ConvNets in the 2020s: Scaling up Kernels Beyond 51x51 using Sparsitycited by 142
  3. 2023TransNeXt: Robust Foveal Visual Perception for Vision Transformerscited by 61
  4. 2023RIFormer: Keep Your Vision Backbone Effective While Removing Token Mixercited by 13
  5. 2022SBSS: Stacking-Based Semantic Segmentation Framework for Very High Resolution Remote Sensing Imagecited by 9
  6. 2022Vision Transformers in Medical Imaging: A Reviewcited by 8
  7. 2023Are Large Kernels Better Teachers than Transformers for ConvNets?cited by 8
  8. 2023Understanding Gaussian Attention Bias of Vision Transformers Using Effective Receptive Fieldscited by 4
  9. 2024DIAL: Dense Image-text ALignment for Weakly Supervised Semantic Segmentationcited by 4
  10. 2024HyenaPixel: Global Image Context with Convolutionscited by 2
  11. 2024MiniMaxAD: A Lightweight Autoencoder for Feature-Rich Anomaly Detectioncited by 2
  12. 2025COST: Contrastive One-Stage Transformer for Vision-Language Small Object Trackingcited by 2
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  1. 2023Resolution-Aware Design of Atrous Rates for Semantic Segmentation Networkscited by 1
  2. 2022Fast-ParC: Capturing Position Aware Global Feature for ConvNets and ViTscited by 0
  3. 2024Towards Optimal Aggregation of Varying Range Dependencies in Haze Removalcited by 0
  4. 2025IConv: Focusing on Local Variation with Channel Independent Convolution for Multivariate Time Series Forecastingcited by 0
  5. 2026ACFormer: Mitigating Non-linearity with Auto Convolutional Encoder for Time Series Forecastingcited by 0
  6. 2026From Local Training to Large-Scale Mapping: A Comparative Assessment of Machine Learning and Deep Learning for Transferable Satellite-Derived Bathymetrycited by 0