HistoNeRF: An Accessible and Intelligent Approach for Comprehensive 2D-to-3D Histological Assessment
Makaleler > Tam Makale · 2026
Yazarlar: Kubilay Doğan KILIÇ, Kaan Özyazıcı, Hüseyin Kısaoğlu, Zeynep Simge Yılmaz, Büşra Horuz, Ayşegül Taşkıran Özyazıcı
MICROSCOPY RESEARCH AND TECHNIQUE, SCI İndekslerine Giren Dergi, Uluslararası, Wos, 2026, cilt 0, ss 0-0
DOI: 10.1002/jemt.70124
Özet
<p>Histological analysis is central to biomedical research and diagnostic pathology, yet conventional two- dimensional (2D) section-</p><p>ing captures only limited aspects of tissue architecture. Critical spatial relationships—such as tumor boundaries, stromal or-</p><p>ganization, and vascular networks—remain obscured, restricting diagnostic accuracy and biological interpretation. HistoNeRF</p><p>addresses these limitations by adapting Neural Radiance Fields (NeRF) to reconstruct three-dimensional (3D) tissue volumes</p><p>from routine histological sections. In this study, 84 toluidine blue (TB)–stained murine ovarian sections were digitized, alignment-</p><p>corrected, and integrated into volumetric models. Tissue segmentation was performed using a convolutional neural network,</p><p>while visualization was achieved through an interactive, GPU-accelerated interface. To ensure accessibility and reproducibility,</p><p>a Python-based graphical application (HistoNeRF GUI) was developed following Human–Computer Interaction (HCI) princi-</p><p>ples and containerized with Docker, allowing installation-free deployment via Docker Hub. HistoNeRF produced high-fidelity</p><p>3D reconstructions (SSIM = 0.92; Dice similarity coefficient = 0.88), enabling expert histologists to better visualize follicular</p><p>structures, stromal compartments, and vascular elements. The containerized GUI was deployed successfully from Docker Hub,</p><p>providing immediate access to 3D reconstruction without a complex local setup. By overcoming the inherent constraints of 2D</p><p>microscopy, HistoNeRF enhances the visualization, interpretability, and reproducibility of histological architecture. The HCI-</p><p>guided, cross-platform interface supports scalability and rapid adoption in digital pathology workflows. Although validation was</p><p>limited to murine ovarian tissue and one staining protocol, this framework can be extended across tissue types and clinical data-</p><p>sets. HistoNeRF bridges routine histology and 3D volumetric analysis through accurate, interactive reconstructions that advance</p><p>diagnostic precision and biomedical research. While demonstrated on 84 serial TB-stained ovarian sections, broader validation</p><p>across tissues, stains, and pathological conditions remains future work; to support this, we provide a Dockerized, modular pipe-</p><p>line for straightforward extension.</p>