Can Peripheral Representations Improve Clutter Metrics on Complex Scenes?
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Abstract (arXiv)
Previous studies have proposed image-based clutter measures that correlate with human search times and/or eye movements. However, most models do not take into account the fact that the effects of clutter interact with the foveated nature of the human visual system: visual clutter further from the fovea has an increasing detrimental influence on perception. Here, we introduce a new foveated clutter model to predict the detrimental effects in target search utilizing a forced fixation search task. We use Feature Congestion (Rosenholtz et al.) as our non foveated clutter model, and we stack a peripheral architecture on top of Feature Congestion for our foveated model. We introduce the Peripheral Integration Feature Congestion (PIFC) coefficient, as a fundamental ingredient of our model that modulates clutter as a non-linear gain contingent on eccentricity. We finally show that Foveated Feature Congestion (FFC) clutter scores r(44) = -0.82 correlate better with target detection (hit rate) than regular Feature Congestion r(44) = -0.19 in forced fixation search. Thus, our model allows us to enrich clutter perception research by computing fixation specific clutter maps. A toolbox for creating peripheral architectures: Piranhas: Peripheral Architectures for Natural, Hybrid and Artificial Systems will be made available.
Key facts. Cited by 8 papers in the map (data through 7 Oct 2026). First posted on arXiv 14 Aug 2016.
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Citing papers per year: 2021: 2; 2022: 1; 2023: 0; 2024: 1; 2025: 3; 2026: 1.
8 papers.
- 2024PeLK: Parameter-efficient Large Kernel ConvNets with Peripheral Convolutioncited by 28
- 2022Peripheral Vision Transformercited by 27
- 2021On the use of Cortical Magnification and Saccades as Biological Proxies for Data Augmentationcited by 12
- 2025Look, Focus, Act: Efficient and Robust Robot Learning via Human Gaze and Foveated Vision Transformerscited by 8
- 2025Predicting Reaction Time to Comprehend Scenes with Foveated Scene Understanding Mapscited by 1
- 2021Noise-Aware Video Saliency Predictioncited by 0
- 2025Robusto-1 Dataset: Comparing Humans and VLMs on real out-of-distribution Autonomous Driving VQA from Perucited by 0
- 2026FAVE: Foveated Adaptive Visual Encoding for Efficient Fine-Grained Visual Understandingcited by 0
- 2026FAVE: Foveated Adaptive Visual Encoding for Efficient Fine-Grained Visual Understanding3 Sep 2026
- 2025Look, Focus, Act: Efficient and Robust Robot Learning via Human Gaze and Foveated Vision Transformers21 Jul 2025
- 2025Predicting Reaction Time to Comprehend Scenes with Foveated Scene Understanding Maps19 May 2025
- 2025Robusto-1 Dataset: Comparing Humans and VLMs on real out-of-distribution Autonomous Driving VQA from Peru10 Mar 2025
- 2024PeLK: Parameter-efficient Large Kernel ConvNets with Peripheral Convolution12 Mar 2024
- 2022Peripheral Vision Transformer14 Jun 2022
- 2021On the use of Cortical Magnification and Saccades as Biological Proxies for Data Augmentation14 Dec 2021
- 2021Noise-Aware Video Saliency Prediction16 Apr 2021