Embedding-Driven Data Distillation for 360-Degree IQA With Residual-Aware Refinement
Abderrezzaq Sendjasni, Seif-Eddine Benkabou, Mohamed-Chaker Larabi

TL;DR
This paper introduces an embedding similarity-based data selection method for 360-degree image quality assessment, significantly reducing data while maintaining or improving model performance across various architectures and datasets.
Contribution
It proposes a novel residual-aware, embedding-driven data distillation framework that enhances data efficiency and model robustness in 360-degree IQA tasks.
Findings
Achieves comparable or better performance with 40-50% fewer patches.
Universal applicability across CNN and transformer-based IQA models.
Reduces computational load by 20-40% without sacrificing accuracy.
Abstract
This article identifies and addresses a fundamental bottleneck in data-driven 360-degree image quality assessment (IQA): the lack of intelligent, sample-level data selection. Hence, we propose a novel framework that introduces a critical refinement step between patches sampling and model training. The core of our contribution is an embedding similarity-based selection algorithm that distills an initial, potentially redundant set of patches into a compact, maximally informative subset. This is formulated as a regularized optimization problem that preserves intrinsic perceptual relationships in a low-dimensional space, using residual analysis to explicitly filter out irrelevant or redundant samples. Extensive experiments on three benchmark datasets (CVIQ, OIQA, MVAQD) demonstrate that our selection enables a baseline model to match or exceed the performance of using all sampled data while…
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Taxonomy
TopicsImage and Video Quality Assessment · Industrial Vision Systems and Defect Detection · Advanced Image Fusion Techniques
