Fast intraoperative detection of primary CNS lymphoma and differentiation from common CNS tumors using stimulated Raman histology and deep learning.
David ReineckeNader MarooufAndrew SmithDaniel AlberJohn MarkertNicolas K GoffTodd C HollonAsadur ChowduryCheng JiangXinhai HouAnna-Katharina MeissnerGina FürtjesMaximilian I RugeDaniel RuessThomas StehleAbdulkader Al-ShughriLisa I KörnerGeorg WidhalmThomas Roetzer-PejrimovskyJohn G GolfinosMatija SnuderlVolker NeuschmeltingDaniel A OrringerPublished in: medRxiv : the preprint server for health sciences (2024)
This study introduces RapidLymphoma, a novel self-supervised-based deep-learning model for visual representations to leverage the detection of primary CNS Lymphoma (PCNSL) and differentiation from common and rare CNS entities using intraoperative label-free stimulated Raman histology. While PCNSL is rare, time-critical personalized treatment with fast intraoperative decision-making is needed. In an international multicentric clinical trial, RapidLymphoma first demonstrated its ability to detect and differentiate PCNSL from other CNS lesions with an overall diagnostic balanced accuracy of 97.81% ± 0.91 compared to formalin-fixed paraffin-embedded diagnosis and is non-inferior to frozen section analysis. It provides near real-time intraoperative feedback and guidance to the surgeon, delivering a diagnosis in under three minutes. RapidLymphoma extracts key histomorphological features for detecting and differentiating CNS lesions by utilizing the benefits of intraoperative stimulated Raman histology. This guidance is assisted through a visual prediction heatmap feedback, highlighting critical areas for the surgeon and pathologist.
Keyphrases
- label free
- blood brain barrier
- deep learning
- clinical trial
- patients undergoing
- decision making
- machine learning
- loop mediated isothermal amplification
- robot assisted
- convolutional neural network
- magnetic resonance imaging
- artificial intelligence
- computed tomography
- working memory
- magnetic resonance
- study protocol
- replacement therapy
- quantum dots
- phase ii
- double blind
- open label