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Fig 1.

Illustration of the proposed sequence to sequence deep learning network architecture for automated sleep stage scoring.

The input signal is a sequence of 30-s EEG epochs and the outputs are their corresponding stages (or classes) generated by our proposed method.

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Fig 2.

Detailed sketch of the utilized CNN model in the proposed work.

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Fig 3.

A schematic diagram of the bidirectional recurrent neural network.

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Table 1.

Details of number of sleep stages in each version of Sleep-EDF dataset.

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Table 2.

Confusion matrix and per-class performance achieved by the proposed method using Fpz-Cz EEG channel of the EDF-Sleep-2013 database.

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Table 3.

Confusion matrix and per-class performance achieved by the proposed method using Pz-Oz EEG channel of the EDF-Sleep-2013 database.

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Table 4.

Comparison of performance obtained by our approach with other state-of-the-art algorithms.

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Fig 4.

Graphs of the performance of the accuracy (a) and the loss function (b) of the proposed model in each epoch for a randomly selected fold (i.e., the fold 4).

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Fig 5.

A example of hypnograms generated by the machine (i.e., the proposed method) and a sleep expert of a subject from the Sleep-EDF-13 dataset; approximately 85% coverage.

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Fig 6.

Attention maps of two sequence inputs (EEG epochs) and their corresponding sleep stage scores provided by our proposed method.

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