Fine-tuning Convolutional Neural Networks for Biomedical Image Analysis: Actively and Incrementally.

Zongwei Zhou, Jae Shin, Lei Zhang, Suryakanth Gurudu, Michael Gotway, Jianming Liang
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Abstract

Intense interest in applying convolutional neural networks (CNNs) in biomedical image analysis is wide spread, but its success is impeded by the lack of large annotated datasets in biomedical imaging. Annotating biomedical images is not only tedious and time consuming, but also demanding of costly, specialty-oriented knowledge and skills, which are not easily accessible. To dramatically reduce annotation cost, this paper presents a novel method called AIFT (active, incremental fine-tuning) to naturally integrate active learning and transfer learning into a single framework. AIFT starts directly with a pre-trained CNN to seek "worthy" samples from the unannotated for annotation, and the (fine-tuned) CNN is further fine-tuned continuously by incorporating newly annotated samples in each iteration to enhance the CNN's performance incrementally. We have evaluated our method in three different biomedical imaging applications, demonstrating that the cost of annotation can be cut by at least half. This performance is attributed to the several advantages derived from the advanced active and incremental capability of our AIFT method.

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用于生物医学图像分析的微调卷积神经网络:主动和增量。
卷积神经网络(CNNs)在生物医学图像分析中的应用引起了广泛的兴趣,但由于生物医学成像中缺乏大型注释数据集,其成功受到了阻碍。注释生物医学图像不仅乏味且耗时,而且需要昂贵的、面向专业的知识和技能,而这些知识和技能并不容易获得。为了显著降低注释成本,本文提出了一种称为AIFT(主动、增量微调)的新方法,将主动学习和迁移学习自然地集成到一个框架中。AIFT直接从预先训练的CNN开始,从未注释的样本中寻找“有价值”的样本进行注释,并通过在每次迭代中加入新注释的样本来进一步连续微调(微调)CNN,以逐步提高CNN的性能。我们已经在三种不同的生物医学成像应用中评估了我们的方法,证明注释的成本至少可以减少一半。这种性能归因于我们的AIFT方法的先进主动和增量能力所带来的几个优势。
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MAPSeg: Unified Unsupervised Domain Adaptation for Heterogeneous Medical Image Segmentation Based on 3D Masked Autoencoding and Pseudo-Labeling. Learned representation-guided diffusion models for large-image generation. SI-MIL: Taming Deep MIL for Self-Interpretability in Gigapixel Histopathology. Calibrating Multi-modal Representations: A Pursuit of Group Robustness without Annotations. Representing Part-Whole Hierarchies in Foundation Models by Learning Localizability, Composability, and Decomposability from Anatomy via Self-Supervision.
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