bioRxivImmunology
ImmuNet: A Segmentation-Free Machine Learning Pipeline for Immune Landscape Phenotyping in Tumors by Muliplex Imaging
S. Sultan, M. A. J. Gorris, E. Martynova, L. L. van der Woude, F. Buytenhuijs, S. van Wilpe, K. Verrijp, C. G. Figdor, I. J. M. de Vries, J. Textor
Abstract
Tissue specimens taken from primary tumors or metastases contain important information for diagnosis and treat-ment of cancer patients. Multiplex imaging allows in situ visualization of heterogeneous cell populations, such as immune cells, in tissue samples. Most image processing pipelines first segment cell boundaries and then measure marker expression to assign cell phenotypes. In dense tissue environments, this segmentation-first approach can be inaccurate due to segmentation errors or overlapping cells. Here we introduce the machine learning pipeline "ImmuNet" that identifies positions and phenotypes of cells without segmenting them. ImmuNet is easy to train: human annotators only need to click on an immune cell and score its expression of each marker. This approach al-lowed us to annotate 34,458 cells. We show that ImmuNet consistently outperforms a state-of-the-art segmentation-based pipeline for multiplex immunohistochemistry analysis across tissue types, cell types and tissue densities, achieving error rates below 5-10% on challenging detection and phenotyping tasks. We externally validate Im-muNet results by comparing them to flow cytometric measurements from the same tissue. In summary, ImmuNet is an effective, simpler alternative to segmentation-based approaches when only cell positions and phenotypes, but not their shapes, are required for downstream analyses. Thus, ImmuNet helps researchers to analyze multiplex tissue images more easily and accurately.
Reproducibility ledger
Nobody has reported trying to reproduce this paper yet. Did you replicate an experiment or run the code? Your report saves the next lab a week.
Sign in to file a reproducibility report.
Related papers
- UMITIC: An unsupervised framework for the joint characterization of cellular phenotypes and spatial neighborhoods in multiplex and hyperplex immunofluorescence imaging data
María Sangüesa, Carlos E. de Andrea, Mikel Ariz·bioRxiv·Aug 26, 2026
- Spatial Immunophenotyping from Whole-Slide Multiplexed Tissue Imaging Using Convolutional Neural Networks
Mohammad Yosofvand, Sharon N. Edmiston, … Ronglai Shen·bioRxiv·Aug 16, 2024
- A novel deep learning pipeline for cell typing and phenotypic marker quantification in multiplex imaging
E. Markovits, T. Dankovich, … O. Zelichov·bioRxiv·Nov 9, 2022
- Multi-modal image analysis for large scale cancer tissue studies within IMMUcan
Nils Eling, Julien Dorier, … Daniel Schulz·Cell Reports MethodsPeer-reviewed·Sep 1, 2025
- Dice-XMBD: Deep learning-based cell segmentation for imaging mass cytometry
Xu Xiao, Ying Qiao, … Jiahuai Han·Frontiers in GeneticsPeer-reviewed·Sep 15, 2021
- CLEAR-IT: Contrastive Learning to Capture the Immune Composition of Tumor Microenvironments
Daniel Spengler, Serafim Korovin, … Hayri Emrah Balcioglu·bioRxiv·Aug 20, 2024