从检测到诊断:使用YOLO11和形态学后处理进行脑肿瘤MRI图像分析的高级迁移学习管道。

IF 2.7 Q3 IMAGING SCIENCE & PHOTOGRAPHIC TECHNOLOGY
Ikram Chourib
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引用次数: 0

摘要

从磁共振成像(MRI)扫描中准确及时地检测脑肿瘤对于改善患者预后和为治疗决策提供信息至关重要。然而,肿瘤形态的复杂异质性、带注释的医疗数据的稀缺性以及深度学习模型的计算需求为开发可靠的自动诊断系统带来了巨大挑战。在这项研究中,我们提出了一个强大的、可扩展的脑肿瘤检测和分类深度学习框架,该框架基于增强的YOLO-v11架构,结合两阶段迁移学习策略。第一阶段包括在一个大型的、多样化的MRI数据集上训练一个基本模型。当平均精度(mAP)超过90%时,将该模型命名为脑肿瘤检测模型(BTDM)。在第二阶段,BTDM在结构相似但较小的数据集上进行微调,形成脑肿瘤检测和分割(BTDS),有效地利用域转移来保持有限数据下的性能。该模型通过特定领域的数据增强(包括几何变换)进一步优化,以提高泛化和鲁棒性。对公开数据集的实验评估表明,该框架获得了很高的mAP@0.5分数(BTDM高达93.5%,BTDS高达91%),并且在多种肿瘤类型(包括胶质瘤、脑膜瘤和垂体瘤)中始终优于现有的最先进的方法。此外,后处理模块通过生成分割掩码和提取临床相关指标(如肿瘤大小和严重程度)来增强可解释性。这些结果强调了我们的方法作为一种高性能、可解释和可部署的临床决策支持工具的潜力,有助于智能实时神经肿瘤诊断的发展。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

From Detection to Diagnosis: An Advanced Transfer Learning Pipeline Using YOLO11 with Morphological Post-Processing for Brain Tumor Analysis for MRI Images.

From Detection to Diagnosis: An Advanced Transfer Learning Pipeline Using YOLO11 with Morphological Post-Processing for Brain Tumor Analysis for MRI Images.

From Detection to Diagnosis: An Advanced Transfer Learning Pipeline Using YOLO11 with Morphological Post-Processing for Brain Tumor Analysis for MRI Images.

From Detection to Diagnosis: An Advanced Transfer Learning Pipeline Using YOLO11 with Morphological Post-Processing for Brain Tumor Analysis for MRI Images.

Accurate and timely detection of brain tumors from magnetic resonance imaging (MRI) scans is critical for improving patient outcomes and informing therapeutic decision-making. However, the complex heterogeneity of tumor morphology, scarcity of annotated medical data, and computational demands of deep learning models present substantial challenges for developing reliable automated diagnostic systems. In this study, we propose a robust and scalable deep learning framework for brain tumor detection and classification, built upon an enhanced YOLO-v11 architecture combined with a two-stage transfer learning strategy. The first stage involves training a base model on a large, diverse MRI dataset. Upon achieving a mean Average Precision (mAP) exceeding 90%, this model is designated as the Brain Tumor Detection Model (BTDM). In the second stage, the BTDM is fine-tuned on a structurally similar but smaller dataset to form Brain Tumor Detection and Segmentation (BTDS), effectively leveraging domain transfer to maintain performance despite limited data. The model is further optimized through domain-specific data augmentation-including geometric transformations-to improve generalization and robustness. Experimental evaluations on publicly available datasets show that the framework achieves high mAP@0.5 scores (up to 93.5% for the BTDM and 91% for BTDS) and consistently outperforms existing state-of-the-art methods across multiple tumor types, including glioma, meningioma, and pituitary tumors. In addition, a post-processing module enhances interpretability by generating segmentation masks and extracting clinically relevant metrics such as tumor size and severity level. These results underscore the potential of our approach as a high-performance, interpretable, and deployable clinical decision-support tool, contributing to the advancement of intelligent real-time neuro-oncological diagnostics.

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来源期刊
Journal of Imaging
Journal of Imaging Medicine-Radiology, Nuclear Medicine and Imaging
CiteScore
5.90
自引率
6.20%
发文量
303
审稿时长
7 weeks
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