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Concept mask-aware pruning and augmentation for few sample model compression
Yafeng Sun1, Xingwang Wang2, Junhong Huang1
1College of Computer Science and Technology, Jilin University, Changchun, 130012, China.
Summary
This study introduces concept mask-aware (CMa) pruning and CMaMix augmentation for few-sample model compression. These methods enhance model compression and performance recovery by leveraging feature map regions and increasing sample diversity.
Area of Science:
- Artificial Intelligence
- Machine Learning
- Computer Vision
Background:
- Few-sample model compression is crucial for efficient deep learning with limited data.
- Existing methods often overlook pruning configuration impacts and sample diversity for performance recovery.
- Deep learning interpretability reveals the significance of feature map regions linked to filters.
Purpose of the Study:
- To propose a novel few-sample model compression method addressing limitations of prior approaches.
- To introduce concept masks for guiding pruning configuration and enhancing sample diversity.
- To unify model compression and performance recovery within a flexible framework.
Main Methods:
- Concept mask-aware (CMa) pruning: Determines block-wise pruning by measuring concept mask divergence.
- CMaMix augmentation: Mixes salient image regions using concept masks from uncompressed models to boost sample diversity.
- Flexible pruning granularity: Supports both filter-level and block-level compression.
Main Results:
- Achieved new state-of-the-art results on image classification and semantic segmentation tasks.
- Demonstrated significant accuracy improvements (0.2% to 8.1%) over prior works with only 50 samples.
- Successfully unified model compression and performance recovery, showcasing effectiveness across diverse architectures.
Conclusions:
- The proposed CMa pruning and CMaMix augmentation offer a powerful approach for few-sample model compression.
- Leveraging concept masks and sample diversity effectively recovers performance in compressed models.
- This method provides a flexible and state-of-the-art solution for efficient deep learning with minimal data.
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