3260 papers • 126 benchmarks • 313 datasets
( Image credit: DeepSleep )
(Image credit: Papersgraph)
These leaderboards are used to track progress in sleep-quality-1
Use these libraries to find sleep-quality-1 models and implementations
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This paper explores the intersection of technology and sleep pattern comprehension, presenting a cutting-edge two-stage framework that harnesses the power of Large Language Models to deliver precise sleep predictions paired with actionable feedback, addressing the limitations of existing solutions.
A novel deep learning architecture called Dreem One Shot Event Detector (DOSED) is proposed, inspired by object detectors developed for computer vision such as YOLO and SSD, which predicts locations, durations and types of events in EEG time series.
DeepSleep is presented, which ranked first in the 2018 PhysioNet Challenge for automatically segmenting sleep arousal regions based on polysomnographic recordings, and features accurate, high-resolution, and fast delineation of sleep arousals.
This paper applies statistical learning techniques to an observational Quantified-Self (QS) study to build a descriptive model of sleep quality, demonstrating that an observational study can greatly narrow down the number of features that need to be considered when designing interventional QS studies.
A novel attention-based deep learning architecture called AttnSleep is proposed to classify sleep stages using single channel EEG signals to outperforms state-of-the-art techniques in terms of different evaluation metrics.
The result of data analysis show the potential uses of the recorded modalities and the feasibility of the MW elicitation protocol, and a reproducible baseline system as a preliminary benchmark is presented.
A U-Net-type deep neural network model is presented that exceeds that of the state-of-the-art detector and of most experts in the MODA dataset and shows improved detection accuracy in subjects of all ages, including older individuals whose spindles are particularly challenging to detect reliably.
This work proposes a cross-modal knowledge distillation strategy that enhances the accuracy of the ear-EEG based sleep staging and can be applied to a wide range of deep learning models.
In-ear-EEG is a valuable solution for home-based sleep monitoring, however further studies with a larger and more heterogeneous dataset are needed.
Adding a benchmark result helps the community track progress.