SAND: Enhancing Open-Set Neuron Descriptions through Spatial Awareness

We propose Spatially-Aware open-set Network Dissection (SAND), a technique to identify and label the learned representation of the neurons of deep vision networks. Con-trary to earlier open-vocabulary neuron explanation meth-ods, we also leverage a neuron's spatial pattern of activation to guide our predictions towards more accurate and rel-evant concepts, while avoiding being misled by confounding visual information. We highlight important regions for a neuron through image masking, which has the advantage of being able to block out irrelevant concepts from an im-age, handling irregularly shaped activation regions, and re-vealing the visual concepts that a neuron learns in order to identify objects. We use CLIP to connect highly activating image regions with descriptive concepts, and measure the quality of our results through human evaluation. Further, since such manual evaluation can be highly time consuming, costly, and unscalable, we also propose an automated approach which uses image generation to get quantitative feedback on the generated concepts. Finally, as an application of our interpretability method, we demonstrate how it can be tuned to the medical domain. Our code is available at https://github.com/Trustworthy-ML-LabISAND

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Published
2025-02-26
DOI
https://doi.org/10.1109/wacv61041.2025.00296
Primary Topic
Neural Networks and Applications
Type
article
Field-Weighted Citation Impact
0.00

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article

SAND: Enhancing Open-Set Neuron Descriptions through Spatial Awareness

Divyansh Srivastava, Wei‐Hung Weng, Azmeera Srinivas, Tuomas Oikarinen et al.
Neural Networks and Applications
article

SAND: Enhancing Open-Set Neuron Descriptions through Spatial Awareness

Divyansh Srivastava, Wei‐Hung Weng, Azmeera Srinivas, Tuomas Oikarinen, Tsui-Wei Weng
article en

Abstract

We propose Spatially-Aware open-set Network Dissection (SAND), a technique to identify and label the learned representation of the neurons of deep vision networks. Con-trary to earlier open-vocabulary neuron explanation meth-ods, we also leverage a neuron's spatial pattern of activation to guide our predictions towards more accurate and rel-evant concepts, while avoiding being misled by confounding visual information. We highlight important regions for a neuron through image masking, which has the advantage of being able to block out irrelevant concepts from an im-age, handling irregularly shaped activation regions, and re-vealing the visual concepts that a neuron learns in order to identify objects. We use CLIP to connect highly activating image regions with descriptive concepts, and measure the quality of our results through human evaluation. Further, since such manual evaluation can be highly time consuming, costly, and unscalable, we also propose an automated approach which uses image generation to get quantitative feedback on the generated concepts. Finally, as an application of our interpretability method, we demonstrate how it can be tuned to the medical domain. Our code is available at https://github.com/Trustworthy-ML-LabISAND

Google (United States) (US), University of California San Diego (US)
National Science Foundation
Reduced inequalities
Openalex Percentile: Top 97%
Neural Networks and Applications
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