đźź§ MACHINE LEARNING FOR MEANINGFUL LIVES
We build AI that understands life.
M2Lab develops machine learning methods for medicine, biology, and human health—turning complex biomedical data into models that matter.
đźź§ MACHINE LEARNING FOR MEANINGFUL LIVES
M2Lab develops machine learning methods for medicine, biology, and human health—turning complex biomedical data into models that matter.
At the intersection of machine learning, medicine, and computational biology, we create scientifically interpretable and clinically useful models. This boils down to developing computational methods that bridge foundational machine learning with meaningful biomedical questions.
Predict patient deterioration from longitudinal physiological data. Build fine-grained, faithful explanations for clinical time-series models.
Digital twins are intelligent, adaptive computational replicas of individual patients that continuously evolve by integrating real-time, multimodal data streams—such as vital signs, laboratory results, medical imaging, genomics, and clinical narratives. These dynamic models emulate physiological processes, anticipate disease progression, and evaluate potential interventions before they are implemented in practice. By mirroring a patient’s unique and evolving health profile, digital twins empower clinicians to deliver personalized, data-driven care with greater precision and foresight. They serve as a foundation for next-generation precision medicine, enabling predictive analytics, continuous learning, and closed-loop feedback systems that connect real-world clinical data with virtual simulation environments for continual model refinement.
Connect tissue morphology with spatial gene expression. Develop generative modeling for molecular, biological, and clinical applications.
Virtual cells are advanced computational representations of individual cells that integrate high-resolution single-cell and spatial multi-omics data to model cellular identity and behavior. By capturing gene expression, chromatin accessibility, protein profiles, and spatial context, digital cells reconstruct molecular mechanisms underlying development, disease progression, and therapeutic response. These models reveal dynamic lineage trajectories, cell–cell communication networks, and microenvironmental influences that shape cellular states. As digital counterparts to living cells, they enable in silico experimentation, virtual perturbation analysis, and predictive modeling — laying the foundation for precision diagnostics, targeted drug discovery, and the next generation of data-driven biomedical research.
We are a multidisciplinary team at National Taiwan University working across machine learning, biomedical engineering, computational biology, and medicine.
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Interested in machine learning for medicine and biology? We welcome curious students, researchers, and collaborators.
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