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BrainYOLO-MCA: An Improved YOLOv11 with Multi-Scale Channel Attention for Brain Tumor Detection
Ran Xie1, Jingang Ma1, Yang Li1
1School of Medical Information Engineering, Shandong University of Traditional Chinese Medicine, Jinan, China.
Current Medical Imaging
|July 13, 2026
Summary
This study introduces BrainYOLO-MCA, a novel framework for improved brain tumor detection in MRI scans. It enhances the identification of tumors with blurred boundaries and small lesions, aiding early diagnosis.
Area of Science:
- Medical Imaging Analysis
- Artificial Intelligence in Healthcare
- Neurosurgery and Oncology
Background:
- Brain tumor detection in MRI is vital for early diagnosis and treatment planning.
- Challenges include blurred boundaries, tissue similarity, and small lesions, hindering accurate detection.
- Existing methods often struggle with these complexities, necessitating advanced solutions.
Purpose of the Study:
- To propose a novel brain tumor detection framework, BrainYOLO-MCA, to overcome current detection limitations.
- To enhance the recognition of indistinct tumor boundaries and improve sensitivity to tiny early-stage lesions.
- To provide a robust and accurate tool for clinical decision-making in neuro-oncology.
Main Methods:
- BrainYOLO-MCA is an enhanced YOLOv11 architecture incorporating a Multi-scale Channel Attention (MCA) mechanism.
- Key optimizations include dynamic upsampling (DySample) for spatial details and a small-object detection head.
- A sparse self-attention mechanism was integrated to strengthen global contextual features.
Main Results:
- BrainYOLO-MCA achieved high precision (up to 98.6%) and mAP50 (up to 97.5%) across three datasets (Br35H, MBrT, Figshare).
- The model outperformed baseline YOLOv11 and other mainstream YOLO-based models.
- It maintained a lightweight architecture with only 3.1M parameters.
Conclusions:
- BrainYOLO-MCA significantly improves the detection of brain tumors, especially those with blurred boundaries and small sizes.
- The MCA mechanism and feature fusion strategies enhance robustness and detection accuracy.
- The framework supports more accurate and reliable brain tumor detection for clinical decision-making and early diagnosis.
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