Object-based Probabilistic Similarity Evidence of Sparse Latent Features from Fully Convolutional Networks
Cyril Juliani

TL;DR
This paper presents a novel approach using fully convolutional networks to extract latent features from 2D objects and assess their visual similarity through probabilistic fuzzy inference, enhancing pattern recognition capabilities.
Contribution
It introduces an object-based similarity analysis method leveraging FCN-derived features combined with fuzzy inference, incorporating weighting schemes for improved accuracy.
Findings
Effective extraction of latent features from FCNs for similarity analysis
Enhanced pattern recognition through probabilistic fuzzy inference
Insights into benefits and challenges of neural network-based similarity measures
Abstract
Similarity analysis using neural networks has emerged as a powerful technique for understanding and categorizing complex patterns in various domains. By leveraging the latent representations learned by neural networks, data objects such as images can be compared effectively. This research explores the utilization of latent information generated by fully convolutional networks (FCNs) in similarity analysis, notably to estimate the visual resemblance of objects segmented in 2D pictures. To do this, the analytical scheme comprises two steps: (1) extracting and transforming feature patterns per 2D object from a trained FCN, and (2) identifying the most similar patterns through fuzzy inference. The step (2) can be further enhanced by incorporating a weighting scheme that considers the significance of latent variables in the analysis. The results provide valuable insights into the benefits…
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Taxonomy
TopicsImage Retrieval and Classification Techniques
MethodsConvolution · Max Pooling · Fully Convolutional Network
