Functional ANOVA Analysis of Design Choices in Remote Sensing Multi-Label Classification
A recent preprint on arXiv (2608.04702) presents a novel approach for assessing deep learning models in the context of multi-label classification (MLC) in remote sensing, extending beyond mere rankings. Utilizing functional analysis of variance (fANOVA), the research meticulously evaluates how various design choices—like network architecture, fine-tuning methods, learning strategies, and initialization—affect performance variability. The study involved two empirical analyses, examining 48 and 20 deep learning models across seven remote sensing image datasets. Through fANOVA, the authors developed dataset meta-representations that illustrate sensitivity to design choices. Hierarchical clustering of these representations indicated that datasets tend to cluster based on their responses to design decisions, closely tied to their inherent properties. This research seeks to enhance the understanding of factors influencing model performance, offering insights that transcend dataset-specific rankings. The preprint can be accessed on arXiv with the identifier 2608.04702.
Key facts
- The study uses functional analysis of variance (fANOVA) to analyze design choices in deep learning models for remote sensing multi-label classification.
- Two empirical analyses were conducted, covering 48 and 20 DL models respectively.
- Design choices analyzed include network architecture, fine-tuning strategy, learning strategy, and initialization.
- The analysis spans seven MLC remote sensing image datasets.
- Dataset meta-representations were constructed to capture design-choice sensitivity profiles.
- Hierarchical clustering of meta-representations revealed that datasets group according to their response to design decisions.
- Patterns are strongly linked to intrinsic dataset properties.
- The paper is available on arXiv under the identifier 2608.04702.
Entities
Institutions
- arXiv