arXiv:2502.20532cs.CV2025-02被引 2

通过细粒度解耦随机不确定性,加速乳腺组织红外成像

Finer Disentanglement of Aleatoric Uncertainty Can Accelerate Chemical Histopathology Imaging

  • 先快速扫描低信息区域,定位高随机不确定性区域
  • 识别可由高保真成像修复的不确定性区域,提升成像效率
  • 首次在动态图像空间中实现随机不确定性细粒度解耦

无标签化学成像有望提升数字病理学流程,但数据采集速度仍是瓶颈。为此,我们提出一种自适应策略:先快速扫描全组织的低信息(LI)内容,识别高随机不确定性(AU)区域,并选择性地以更高质量重采样,捕捉更高信息(HI)细节。主要挑战在于区分可通过HI成像缓解的高AU区域与无法缓解的区域。由于现有不确定性框架无法分离此类子类别,我们提出基于后验潜在空间分析的细粒度解耦方法,将可解决与不可解决的高AU区域分离。该方法应用于乳腺组织的红外光谱成像,显著提升下游分割性能。这是首个聚焦动态图像空间(LI到HI)中细粒度随机不确定性解耦的研究,开创性应用于病理成像加速。

原文摘要 · Abstract (English)

Label-free chemical imaging holds significant promise for improving digital pathology workflows, but data acquisition speed remains a limiting factor. To address this gap, we propose an adaptive strategy-initially scan the low information (LI) content of the entire tissue quickly, identify regions with high aleatoric uncertainty (AU), and selectively re-image them at better quality to capture higher information (HI) details. The primary challenge lies in distinguishing between high-AU regions mitigable through HI imaging and those that are not. However, since existing uncertainty frameworks cannot separate such AU subcategories, we propose a fine-grained disentanglement method based on post-hoc latent space analysis to unmix resolvable from irresolvable high-AU regions. We apply our approach to streamline infrared spectroscopic imaging of breast tissues, achieving superior downstream segmentation performance. This marks the first study focused on fine-grained AU disentanglement within dynamic image spaces (LI-to-HI), with novel application to streamline histopathology.

医学影像不确定性成像加速

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