This survey comprehensively evaluates the underlying mechanisms, inherent strengths, and specific weaknesses of each FSIC methods into three categories: Metric Learning, Optimization/Meta-Learning, and Transfer Learning with Large Model Fine-Tuning.
Abstract
While deep learning has achieved remarkable success in image recognition, it relies heavily on massive amounts of labeled data. In real-world scenarios like medical imaging, collecting such large datasets is often expensive or impossible. To overcome this critical bottleneck, Few-Shot Image Classification (FSIC) has emerged as a vital domain, enabling models to learn new categories from extremely limited samples. Based on a comprehensive review of recent literature, this paper systematically divides mainstream FSIC methods into three categories: Metric Learning, Optimization/Meta-Learning, and Transfer Learning with Large Model Fine-Tuning. This survey comprehensively evaluates the underlying mechanisms, inherent strengths, and specific weaknesses of each category. Additionally, the paper provides a clear performance comparison to illustrate the evolutionary impact of these different approaches. Finally, the paper deeply discusses remaining technical challenges, specifically detailing issues like cross-domain generalization and computational dependence, and outlines promising future research directions, such as multimodal knowledge fusion, to further advance the field.
Few-shot image classification remains difficult because a model must identify novel classes from only one or a few labeled examples while preserving discriminative local information. Metric-learning methods based on Earth Mover’s Distance (EMD) improve local correspondence by representing an image as a set of regional...
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Medical image segmentation plays a pivotal role in computer-aided diagnosis. However, the scarcity of annotated data severely hinders the deployment of deep learning models. Few-shot learning (FSL) is designed to achieve rapid adaptation to unseen classes using limited labeled samples, among which prototype-based metho...
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The critical bottleneck in hyperspectral image (HSI) classification lies in the inherent conflict between the extreme scarcity of labeled samples and the massive data requirements of deep models, making few-shot classification a vital research frontier. This article presents a comprehensive review of recent advances in...
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