可解释性
计算机科学
人工智能
免疫组织化学
多路复用
计算机视觉
染色
水准点(测量)
模式识别(心理学)
H&E染色
视频阵列图形
下调和上调
编码(集合论)
代表(政治)
像素
病理
作者
Junjie Zhou,A. S. Krylov,Jianpeng Sheng,Qi Zhu,Wei Shao,Daoqiang Zhang
标识
DOI:10.1109/tmi.2025.3618446
摘要
Multiplex immunohistochemistry (mIHC) images have the potential to assess the complex tumor microenvironment by simultaneously detecting multiple markers within a single tissue section, however, the acquisition of mIHC images in clinical labs is both time-consuming and costly. Hence, applying machine learning-based virtual staining techniques for rapid generation of different mIHC markers has become a considerable alternative. The existing bio-image based virtual staining models generate the distributions of different markers independently, which have limited interpretability and overlook the fact that the exploration of potential interrelationships among these markers can help determine the localization of each individual marker. To address the above issues, we propose an explainable prototypical multi-task generation framework (i.e., ProtoMTG) to simultaneously generate multiple mIHC markers. Specifically, ProtoMTG involves a multi-task prototype layer that can capture the relationship among different virtual staining tasks by learning the shared and task-specific prototypes. Then, in the proto-attention layer, both task-specific and shared prototypes will be re-weighted and combined to instruct the generation of different mIHC markers. In ProtoMTG, we also design the novel prototypical activation and diversity losses to learn better prototype representation for the virtual staining task. To evaluate the performance of our method, we develop three benchmark mIHC datasets on different organs (i.e., colon, liver and stomach). The experimental results indicate that our method can not only outperform the existing image generation models, but also have good explainable ability for the virtual staining of mIHC markers. The code and dataset are available at: https://jj-zhou-code.github.io/ProtoMTG-website/.
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