
Using AI to Predict Future CPAP Adherence and the Impact of Behavioral and Technical Interventions
This research demonstrates a novel application for AI to aid clinicians in maintaining CPAP adherence across identifiable phenotypes.

This research demonstrates a novel application for AI to aid clinicians in maintaining CPAP adherence across identifiable phenotypes.

This research demonstrated a promising opportunity to estimate OSA severity with a host of EEG study types using applied artificial intelligence.

This research highlights how interpretable machine learning models show strong promise as another means for determining therapeutic CPAP pressures.

This work demonstrates that consensus-based reference for sleep study analysis may be constructed and used for Inter-Scorer Reliability (ISR) assessments to enable measurement of scoring agreement with greater reproducibility.

In this study, we utilize a Computational Phenotyping approach using Polysomnography (PSG) data to predict adverse health outcomes based on common clinical variables and interpretable physiological features, providing a clear explanation as to why each estimation is made.

This article reviews the current engineering approaches (including AI and machine learning) for the detection and treatment of sleep apnea.

In this study, we present the device design, simulation, and measurement results of a therapy device that potentially prevents sleep apnea by slightly increasing inspired CO2 through added dead space (DS).

In this work, we present a large-scale machine learning analysis of a multi-site, 5793 patient dataset, demonstrating strong performance in SDB event classification.

The study examines a machine learning system, called NEXT, which provides a unique platform for real-world, reproducible active learning research. This paper details the challenges of building the system and demonstrates its capabilities with several experiments.