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🚀 EvoBrainNet: A Multi-Objective Evolutionary Neural Architecture Search with Self-Adaptive Mutation for Volumetric Brain Tumor Segmentation

🚀 Accurate, Efficient 3D Brain Tumor Segmentation in MRI using Evolutionary Architecture Search

📌 Full code and pretrained models will be released soon!


🔍 Abstract

Precise segmentation of brain tumors in volumetric MRI is challenging due to significant heterogeneity in tumor shape, size, and intensity. EvoBrainNet tackles this by combining:

  • ExoFeature Module: Enhanced contextual encoding for robust feature extraction.
  • Dilated Residual Attention Pyramid (DRAP): Multiscale residual attention and channel recalibration.
  • RefineUp Module: Decoder-side refinement with attention-guided upsampling.

A multi-objective evolutionary neural architecture search (NAS) framework with a self-adaptive mutation strategy jointly optimizes both segmentation quality (Dice similarity coefficient) and model efficiency (parameters, GFLOPs). EvoBrainNet outperforms nine state-of-the-art methods on multiple benchmarks and generalizes well across unseen datasets.


🎯 Key Features

State-of-the-Art Accuracy: Achieves 95.56% Dice and 1.42mm HD95 on BraTS 2021.

Multi-Objective Optimization: Simultaneously maximizes accuracy and efficiency.

Self-Adaptive Evolutionary NAS: Automatically explores optimal architectures with dynamic mutation rate.

Generalization: Robust performance on BraTS 2020 and MSD Brain Tumor datasets.

Ablation Proven: Each module’s effectiveness is statistically validated.


🏆 Results at a Glance

Dataset DSC (%) HD95 (mm)
BraTS 2021 95.56 1.42
BraTS 2020 93.08 1.97
MSD Brain 93.79 1.64

Outperforms 9 SOTA methods in both accuracy and efficiency.


🧠 Core Innovations

  • Modular 3D Supernet: Flexible, scalable architecture search space.
  • Self-Adaptive Mutation: Dynamic evolution based on real-time performance.
  • Clinical Efficiency: Optimized for parameter count and computational cost (GFLOPs).

📦 Stay Tuned

  • 🔜 Full code, pretrained models, and detailed usage instructions coming soon!
  • 💡 Open source for the research and clinical community.

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