Deep learning based pre-metastatic tumor lung immunosuppressive microenvironment assessment system
By integrating multidimensional omics data and simulating the positive feedback mechanism of interferon signals, the deep learning-based tumor lung metastasis pre-metastasis immunosuppressive microenvironment assessment system solves the problem that imaging technology cannot identify lung metastases in the early stage, realizes early and accurate warning and high-precision assessment, fills the window of opportunity for diagnosis and treatment, and reduces the risk of missed diagnosis.
Patent Information
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- STOMATOLOGY HOSPITAL OF HEBEI MEDICAL UNIV
- Filing Date
- 2026-03-14
- Publication Date
- 2026-06-19
AI Technical Summary
Existing imaging techniques cannot identify risks before the formation of lung metastases from tumors. Traditional liquid biopsies are difficult to assess the local immune microenvironment status of distant organs, resulting in a window of opportunity for diagnosis and treatment. Furthermore, traditional models are unable to accurately characterize the dynamic process of the immune microenvironment transitioning from a homeostatic to an inhibitory state.
A deep learning-based assessment system for the pre-metastatic immunosuppressive microenvironment of tumor lung metastases was constructed. By transforming the positive feedback mechanism of TLR7/9-IFN signal induced by tumor exosomes into a deep learning model, and combining Ifi204 path switching weights and focus loss function, multidimensional omics data were integrated to simulate the positive feedback amplification process of interferon signal mediated by Stat1/Stat2, thereby achieving early identification and quantification of the pre-metastatic niche.
Accurately predicting pre-metastatic niches of lung disease at least 3 weeks before radiographically visible metastatic lesions, improving the accuracy of identifying immunosuppressive microenvironment subtypes, reducing the risk of missed diagnoses, and providing interpretable clinical decision-making basis.
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