A finer-grained high altitude EEG dataset for hypoxia levels assessment

The study reports on a high-altitude EEG dataset comprising 64-channel EEG signals from 23 subjects, aiming at achieving a finer-grained assessment of hypoxia levels. Four hypoxia levels were induced by creating a gradient of oxygen partial pressure through changes in altitude and external hypoxia stimulation. The dataset was collected in a hypoxic chamber that simulates altitude changes, allowing for a refined classification of different hypoxia levels based on ranges of oxygen saturation. The total recorded EEG data amounts to approximately 10.25 hours. Validation results indicate that the four hypoxia levels can be effectively recognized using EEG signals. Compared to binary classification, our fine-grained dataset allows for more precise detection of hypoxia levels. This dataset is anticipated to have significant research and practical value in developing accurate methods for identifying hypoxia levels. As a valuable and standardized resource, it will enable extensive analysis and comparison for researchers in the field of high-altitude hypoxia.

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Publication Details

Journal
Scientific Data
Published
2024-12-18
DOI
https://doi.org/10.1038/s41597-024-04102-5
Primary Topic
High Altitude and Hypoxia
Type
article
Field-Weighted Citation Impact
0.00

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article

A finer-grained high altitude EEG dataset for hypoxia levels assessment

Honghao Zhang, Hui Yang, Yu Zhang, Xi Zhang et al.
Scientific Data
High Altitude and Hypoxia
article

A finer-grained high altitude EEG dataset for hypoxia levels assessment

Honghao Zhang, Hui Yang, Yu Zhang, Xi Zhang, Sicong Liu, Yingjun Si
article en

Abstract

The study reports on a high-altitude EEG dataset comprising 64-channel EEG signals from 23 subjects, aiming at achieving a finer-grained assessment of hypoxia levels. Four hypoxia levels were induced by creating a gradient of oxygen partial pressure through changes in altitude and external hypoxia stimulation. The dataset was collected in a hypoxic chamber that simulates altitude changes, allowing for a refined classification of different hypoxia levels based on ranges of oxygen saturation. The total recorded EEG data amounts to approximately 10.25 hours. Validation results indicate that the four hypoxia levels can be effectively recognized using EEG signals. Compared to binary classification, our fine-grained dataset allows for more precise detection of hypoxia levels. This dataset is anticipated to have significant research and practical value in developing accurate methods for identifying hypoxia levels. As a valuable and standardized resource, it will enable extensive analysis and comparison for researchers in the field of high-altitude hypoxia.

Scientific DataVol. 11(1)
Northwestern Polytechnical University (CN), Northwestern Polytechnic University (US)
National Natural Science Foundation of China, Natural Science Foundation of Ningbo
Climate action
Openalex Percentile: Top 74%
High Altitude and Hypoxia
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A finer-grained high altitude EEG dataset for hypoxia levels assessment — Honghao Zhang, Hui Yang, et al. · Scientific Data (2024) | TGRS Research Map | TGRS