We can't find the internet
Attempting to reconnect
Something went wrong!
Hang in there while we get back on track
AI-Enhanced Patient-Derived Cancer Organoids: Integrating Machine Learning for Precision Oncology
Summary
This review explores how combining patient-derived cancer organoids with artificial intelligence enables more precise drug sensitivity predictions and biomarker discovery in oncology research. While not directly related to microplastic research, the study demonstrates how AI and advanced biological models can be integrated to analyze complex datasets. The approaches described may inform future methods for studying how environmental contaminants interact with human tissues.
Cancer remains a leading cause of mortality worldwide. Patient-derived organoids (PDOs) are three-dimensional (3D) cultures that recapitulate tumor histology, genetics, and cellular heterogeneity, providing physiologically relevant preclinical models. Integrating PDOs with artificial intelligence (AI) and machine learning (ML) enables scalable analysis of high-dimensional datasets, including imaging, transcriptomics, proteomics, and pharmacological readouts. These approaches support prediction of drug sensitivity, biomarker discovery, and patient stratification. Recent advances—such as deep learning (DL), transfer learning, federated learning, and self-supervised learning—enhance phenotypic profiling, cross-institutional model training, and translational prediction. In this review, we summarize the current state of AI-driven PDO research, highlighting methodological approaches, preclinical and clinical applications, challenges, and emerging trends. We also propose strategies for standardization, validation, and multi-modal integration to accelerate patient-specific therapeutic strategies.
Sign in to start a discussion.
More Papers Like This
The Role of Artificial Intelligence in Microplastic Pollution Studies and Management
This review explores how artificial intelligence is transforming microplastic research, from automating detection in microscopy images and spectral analysis to predicting how plastics interact with pollutants and living organisms. AI-powered sensors and real-time monitoring systems are also being integrated into wastewater treatment to reduce microplastic release, making the technology a powerful tool for both understanding and managing plastic pollution.
Integrative toxicogenomics: Advancing precision medicine and toxicology through artificial intelligence and OMICs technology
Researchers reviewed how artificial intelligence combined with genomics (the study of genes) and multi-omics data is advancing personalized medicine and toxicology, enabling faster, more accurate predictions of how individuals will respond to drugs or toxic exposures. These tools could eventually help assess risks from environmental contaminants like microplastics based on a person's unique genetic makeup.
In-silico pharmacological insights into the therapeutic potential of microRNAs for microplastic-associated cancers
Researchers systematically screened published literature to identify cancer-related genes altered by microplastic exposure, then computationally evaluated microRNAs with anticancer activity that could target those genes, finding potential miRNA-based therapeutic candidates across breast, gastric, and other microplastic-associated tumor types.
Bridging Nanomanufacturing and Artificial Intelligence—A Comprehensive Review
This review covers how artificial intelligence and machine learning are being applied to nanomanufacturing for medicine, robotics, and electronics. While not about microplastics directly, the AI-powered nanoscale detection and characterization methods discussed could be applied to identifying and quantifying nanoplastics in the environment and human tissue. Advances in nano-scale imaging and analysis driven by AI may eventually help researchers better understand human exposure to nanoplastics.
An updated systematic review about various effects of microplastics on cancer: A pharmacological and in-silico based analysis
This systematic review with in-silico analysis found that microplastics have both tumor-promoting and tumor-suppressing effects on cancer cells, affecting viability, migration, metastasis, and apoptosis. The study identified key proteins (AP2M1, ASGR2, BI-1, Ferritin Heavy Chain) involved in microplastic-mediated cancer progression and used computational modeling to identify existing drugs that might counteract these pathways.