Hypoglycemia induced significant changes in EEG spectral moments, with 30-second segments providing the best detection rate and yielding 86% clinically acceptable estimated blood glucose values.
Observational (n=5)
No
Does electroencephalogram (EEG) spectral moment analysis detect nocturnal hypoglycemia in adolescents with type 1 diabetes?
EEG spectral moments, particularly from 30-second segments in the occipital lobe, show potential as a non-invasive method for detecting nocturnal hypoglycemia in patients with type 1 diabetes.
p-value: p=<0.05
Hypoglycemia or low blood glucose is the most feared complication of insulin treatment of diabetes. For people with diabetes, the mismatch between the insulin therapy and the body's physiology could increase the risk of hypoglycemia. Nocturnal hypoglycemia is particularly dangerous for type-1 diabetes patients because its symptoms may obscure during sleep. The early onset detection of hypoglycemia at night time is necessary because it can result in unconsciousness and even death. This paper presents new electroencephalogram spectral features for nocturnal hypoglycemia detection. The system uses high-order spectral moments for feature extraction and Bayesian neural network for classification. From a clinical study of hypoglycemia of eight patients with type-1 diabetes at night, we find that these spectral moments of theta band and alpha band changed significantly. During hypoglycemia episodes, the theta moments increased significantly (P < 0.001) while the features of alpha band reduced significantly (P < 0.001). Using the optimal Bayesian neural network, the classification results were 85% and 52% in sensitivity and specificity, respectively. The significant correlation (P < 0.001) with real blood glucose profiles shows the effectiveness of the proposed features for the detection of nocturnal hypoglycemia.
Ngo et al. (Mon,) conducted a observational in Type 1 Diabetes (n=5). Hypoglycemia vs. Non-hypoglycemia was evaluated on Clinically acceptable estimated blood glucose values (Clarke's error grid zones A and B) using 30-second EEG spectral moments (p=<0.05). Hypoglycemia induced significant changes in EEG spectral moments, with 30-second segments providing the best detection rate and yielding 86% clinically acceptable estimated blood glucose values.
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