• Physics-informed neural networks for hidden insulin dynamics

    Physics-informed neural networks that estimate insulin dynamics, which are not measured directly, from glucose data.

    Used in PRAESIIDIUM

  • Reduced model of type 2 diabetes progression

    Simulation code for a two-scale model of the long-term effects of physical activity on type 2 diabetes and for its reduced (homogenised) version, which allows fast long-term predictions.

    Used in PRAESIIDIUM

  • Surrogate model of prediabetes progression

    Deep learning surrogate of a mechanistic model of prediabetes progression, for fast patient-specific simulations. Data and trained model are not included.

    Used in PRAESIIDIUM

  • Hierarchical Bayesian inference for ODE systems

    Hierarchical Bayesian estimation of the parameters of ordinary differential equations from multiple sparse data sets, which share information across individuals or experiments.

  • Spatial regression with PDE penalisation

    Code for spatial regression with partial differential equation penalisation, used to estimate blood flow velocity fields.

  • Counterfactual inference with differential equation models

    Counterfactual inference for ordinary differential equation models, applied to a model of glucose regulation to assess personalised physical activity plans for the prevention of type 2 diabetes.

    Used in PRAESIIDIUM

  • Causal discovery for type 2 diabetes risk

    Bootstrap-based causal discovery of a global causal model of type 2 diabetes risk factors from primary care data.

    Used in PRAESIIDIUM

  • Causal AI Clinician

    Structural causal models with expert clinical knowledge that estimate the effect of intravenous fluids and vasopressors in the first hours of septic shock, trained on MIMIC and externally validated on eICU, with an interactive dashboard.

    Used in Emulation of clinical trials with real-world data

  • Hierarchical Bayesian network parameters

    Code for the hierarchical estimation of conditional probability tables in Bayesian networks.

  • FLOTTA

    Secure and flexible federated learning framework, inspired by Apache Spark, for training models across institutions without sharing data.

    Used in SPEARHEAD

  • FPLIER

    Federated version of PLIER, which extracts pathway-level representations of transcriptomic data distributed across institutions, with a simulation based on the Flower framework.

    Used in K-CLIER

  • K-CLIER protocol

    Step-by-step protocol, with R code and test data, for interpretable, single-cell-informed deconvolution of bulk RNA-seq data.

    Used in K-CLIER

IDSIA on GitHub