Related Experiment Video
Updated: Mar 27, 2026

06:45
Automated Joint Space Detection Improves Bone Segmentation Accuracy
Published on: November 28, 2025
264
HFP-SAM: Hierarchical Frequency Prompted SAM for Efficient Marine Animal Segmentation.
Summary
This study introduces Hierarchical Frequency Prompted SAM (HFP-SAM) for marine animal segmentation, improving detail and frequency perception. The novel framework enhances accuracy in complex underwater environments.
Area of Science:
- Computer Vision
- Marine Biology
- Deep Learning
Background:
- Marine Animal Segmentation (MAS) faces challenges with long-distance modeling in complex environments.
- Existing deep learning methods for MAS often overlook fine-grained details and frequency information.
- The Segment Anything Model (SAM) shows promise but requires adaptation for specialized tasks like MAS.
Purpose of the Study:
- To develop a high-performance learning framework for Marine Animal Segmentation (MAS).
- To address the limitations of existing methods, particularly regarding detail perception and frequency analysis.
- To enhance the capabilities of the Segment Anything Model (SAM) for underwater imagery.
Main Methods:
- Proposed Hierarchical Frequency Prompted SAM (HFP-SAM) framework.
- Developed a Frequency Guided Adapter (FGA) to integrate marine scene information via frequency domain priors.
- Introduced Frequency-aware Point Selection (FPS) for generating informative prompts.
- Incorporated Full-View Mamba (FVM) for efficient spatial and channel contextual information extraction.
Main Results:
- HFP-SAM demonstrated superior performance in marine animal segmentation tasks.
- The framework successfully integrated frequency information and fine-grained details.
- Experiments on four public datasets validated the effectiveness of the proposed methods.
Conclusions:
- The HFP-SAM framework offers a significant advancement in marine animal segmentation.
- The integration of frequency analysis and enhanced prompting improves segmentation accuracy.
- The proposed approach provides a robust solution for identifying marine animals in challenging underwater conditions.

