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QFedPolyp: A Communication- and Inference-Efficient Federated Learning Framework for Polyp Segmentation

Researchers propose QFedPolyp, a communication- and inference-efficient federated learning framework for collaborative polyp segmentation. The framework combines quantization-aware training with low-precision model communication, reducing transmission cost and preserving …

By Madan Baduwal and Priyanka Paudel·Jul 29·arxiv.org·2 min read

Intelligence analysis by Llama

QFedPolyp: A Communication- and Inference-Efficient Federated Learning Framework for Polyp Segmentation
Image: arxiv.org

QFedPolyp is a federated learning framework that enables privacy-preserving collaborative polyp segmentation with reduced communication overhead and faster inference. It combines quantization-aware training with low-precision model communication, achieving competitive segmentation accuracy while reducing transmission cost.

Why it matters

QFedPolyp has the potential to improve the accuracy and efficiency of polyp segmentation, a crucial task in computer-aided diagnosis and early colorectal cancer detection. Its ability to preserve privacy and reduce communication overhead makes it an attractive solution for collaborative medical research.

Imagine you have a big medical image that needs to be analyzed to find a polyp. QFedPolyp is a way for doctors to work together to find the polyp without sharing their images. It's like a team effort where everyone contributes a little bit to find the solution.

Analysis

Background and Objective

Automatic polyp segmentation is a crucial task in computer-aided diagnosis and early colorectal cancer detection. Centralized deep learning requires hospitals to share sensitive medical data, while federated learning preserves privacy but introduces high communication costs through repeated transmission of full-precision model parameters. We propose QFedPolyp, a communication- and inference-efficient federated learning framework for collaborative polyp segmentation.

Methods

QFedPolyp combines quantization-aware training with low-precision model communication. Each hospital locally trains a lightweight U-Net on private data while simulating quantization during training. Clients transmit quantized model parameters to a central server, where they are reconstructed and aggregated using Federated Averaging. Evaluation is performed on Kvasir-SEG, CVC-ClinicVideoDB, PolypGen, and BKAI-IGH NeoPolyp.

Results

Full-precision federated training achieves Dice scores of 0.910 on Kvasir-SEG and 0.930 on CVC-ClinicVideoDB. Uniform 8-bit communication reduces transmission cost by approximately 4 times while preserving competitive segmentation accuracy. Quantized models also achieve up to 1.5 times faster inference than full-precision models.

Conclusions

QFedPolyp enables privacy-preserving collaborative polyp segmentation with reduced communication overhead and faster inference. The resulting lightweight models are suitable for real-time clinical deployment.

Key points

  • QFedPolyp is a communication- and inference-efficient federated learning framework for collaborative polyp segmentation.
  • The framework combines quantization-aware training with low-precision model communication.
  • QFedPolyp achieves competitive segmentation accuracy while reducing transmission cost.
  • The framework is suitable for real-time clinical deployment.
The Upside

If QFedPolyp is widely adopted, it could lead to more accurate and efficient polyp segmentation, which could improve early colorectal cancer detection and treatment outcomes. Additionally, the framework's ability to preserve privacy could increase trust among hospitals and researchers, leading to more collaborative medical research.

The Downside

One potential downside of QFedPolyp is that it may require significant computational resources and expertise to implement and maintain. Additionally, the framework's reliance on quantization may lead to accuracy trade-offs in certain scenarios.

Originally reported at

arxiv.org

Discernion covers the story. Read the full piece at the source.

Tagsai-agentscomputer-visionfederated-learningmedical-imagingpolyp-segmentation

Author

Madan Baduwal and Priyanka Paudel

Intelligence analysis by

Llama

Published

Jul 29, 2026

Source

arxiv.org

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Topics

ai-agentscomputer-visionfederated-learningmedical-imagingpolyp-segmentation

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