bioRxivCell BiologyPreprint
High-throughput Image-based Clustering of CAR-T/Tumor Cocultures for Rapid and Facile Hit Identification
Zhi XuiD, Xueqi LiuiD, Kirby Madden-Hennessey, Jordan Urbani, Shahryar Khoshtinat NikkhoiiD, Anusuya M. RamasubramanianiD, Kartika VenugopaliD, Qi ZhaoiD, Eric L. SmithiD, Yun FuiD
- Citations
- 0
Abstract
AO_SCPLOWBSTRACTC_SCPLOWChimeric antigen receptor T cell is important because of its potential to treat various diseases. As deep learning continues to advance, using unsupervised methods to classify medical images has become a significant focus because collecting high-quality labeled data for medical images is labor-intensive and time-consuming. Beyond the need for accurate labeling, there is a desire to explore the underlying characteristics of the data, even when labels may be ambiguous or uncertain. To address these challenges, we present a novel approach that combines image clustering with an insightful explanation of how these clusters are formed. Our method employs a U-net combined with a clustering algorithm to segment the dataset into different groups. After clustering, we use various techniques to interpret and elucidate the results. Moreover, our paper introduces a unique dataset focused on cell data, specifically highlighting the developmental patterns of cancer cells and T cells under various experimental conditions. This dataset offers a rich source of information and presents a complex challenge for image classification due to the diversity of conditions and cell behaviors involved. Our study thoroughly compares different architectural models on this new dataset, demonstrating the superior performance of our proposed architecture. Through experimental analysis and ablation studies, we provide substantial evidence of the benefits offered by our architecture, not only in terms of accuracy but also in its ability to reveal deeper insights into the data. This work advances the field of image classification and opens new possibilities for understanding complex biological processes through computer vision.
- assay: imaging
- assay: fluorescence / live-cell microscopy
- research focus: clustering
- approach: deep learning
- approach: contrastive learning
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
- Label-free tumor cells classification using deep learning and high-content imaging
Chawan Piansaddhayanon, Chonnuttida Koracharkornradt, … Sira Sriswasdi·Scientific DataPeer-reviewed·Aug 26, 2023
- Enhancing Medical Image Segmentation through Negative Sample Integration: A Study on Kvasir-SEG and Augmented Datasets
Imon Mahbub, Ahmed Zoha Zim, … Md. Mehedi Hasan Shawon·bioRxiv·Oct 14, 2025
- Automatic Classification of Circulating Blood Cell Clusters based on Multi-channel Flow Cytometry Imaging
Suqiang Ma, Subhadeep Sengupta, … He Li·Engineering Applications of Artificial IntelligencePeer-reviewed·Dec 3, 2025
- Cell Type Classification and Unsupervised MorphologicalPhenotype Identification from Low-Res Images with DeepLearning
K. Yao, N. Rochman, S. Sun·bioRxiv·Jan 29, 2019
- CLEAR-IT: Contrastive Learning to Capture the Immune Composition of Tumor Microenvironments
Daniel Spengler, Serafim Korovin, … Hayri Emrah Balcioglu·bioRxiv·Aug 20, 2024
- Exploit Spatially Resolved Transcriptomic Data to Infer Cellular Features from Pathology Imaging Data}
Zhining Sui, Ziyi Li, Wei Sun·bioRxiv·Aug 5, 2024