Invention Description
Type 1 diabetes (T1D) is an autoimmune disease where the body attacks and destroys insulin-producing beta cells in the pancreas and affects nearly 10 million people globally. Because glucose needs to be continuously monitored for precise insulin dosing, managing T1D is challenging. While automated insulin delivery (AID) systems and continuous glucose monitors (CGMs) attempt to prevent dysglycemia, there are still limitations in their prediction algorithms.
Researchers at Arizona State University have developed a novel light-weight machine learning model, GLIMMER, designed to improve blood glucose level predictions, enhancing safety and management for Type 1 Diabetes patients. GLIMMER leverages a advanced machine learning algorithms with a custom loss function optimized by a genetic algorithm to accurately predict blood glucose levels, especially in critical dysglycemic regions. By utilizing continuous glucose monitoring (CGM) data, insulin, and carbohydrate intake, GLIMMER outperforms existing models in predicting hypoglycemic and hyperglycemic events, supporting improved patient safety and diabetes management. Even though GLIMMER has only 10,000 parameters, its performance is comparable with existing glucose forecasting models that use 18 million parameters.
This approach uniquely combines tailored feature engineering, extensive hyperparameter tuning and a novel custom loss function which prioritizes accuracy in dysglycemic regions to support earlier corrective actions in real-time.
Potential Applications
- Integration into Automated Insulin Delivery (AID) systems for safer insulin dosing
- Incorporation into smartphone health apps providing real-time glucose alerts
- Support tools for endocrinologists and diabetes care teams
- Remote monitoring and early intervention platforms for T1D patients
- Personalized diabetes management solutions leveraging predictive analytics
Benefits and Advantages
- 23% improvement in Root Mean Square Error (RMSE) over existing models
- 31% improvement in Mean Absolute Error (MAE) for predictions
- Advanced focus on clinically significant dysglycemic regions for safer predictions
- Incorporates multiple data inputs: CGM, insulin, carbohydrate intake
- Optimized with a genetic algorithm enhancing prediction accuracy
- Validated on multiple datasets including OhioT1DM and AZT1D
- Enables early detection of hypoglycemia and hyperglycemia through improved precision and recall
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