2018
DOI: 10.1055/s-0038-1667083
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Deep Learning on 1-D Biosignals: a Taxonomy-based Survey

Abstract: Our key-code classification of relevant papers was used to cluster the approaches that have been published to date and demonstrated a large variability of research with respect to data, application, and network topology. Future research is expected to focus on the standardization of deep learning architectures and on the optimization of the network parameters to increase performance and robustness. Furthermore, application-driven approaches and updated training data from mobile recordings are needed.

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citations
Cited by 68 publications
(57 citation statements)
references
References 117 publications
(272 reference statements)
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“…Similar performances have been achieved in the field of 25 speech recognition [8,9] and natural language processing [10,11]. 26 A steadily growing amount of work has been exploring the application of deep 27 learning approaches on physiological signals. Martinéz et al [12] were able to 28 significantly outperform standard approaches built upon hand-crafted features by using 29 a deep learning algorithm for affect modelling based on physiological signals (two 30 physiological signals consisting of Skin Conductance (SC) and Blood Volume Pulse 31 (BVP) were used in this specific work).…”
supporting
confidence: 56%
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“…Similar performances have been achieved in the field of 25 speech recognition [8,9] and natural language processing [10,11]. 26 A steadily growing amount of work has been exploring the application of deep 27 learning approaches on physiological signals. Martinéz et al [12] were able to 28 significantly outperform standard approaches built upon hand-crafted features by using 29 a deep learning algorithm for affect modelling based on physiological signals (two 30 physiological signals consisting of Skin Conductance (SC) and Blood Volume Pulse 31 (BVP) were used in this specific work).…”
supporting
confidence: 56%
“…Most of the reported 49 approaches consist of first transforming the processed EMG signal into a two 50 dimensional (time-frequency) visual representation (such as a spectrogram or a 51 scalogram) and subsequently using a deep CNN architecture to proceed with the 52 classification. A similar procedure has been used in [24] for the analysis of deep learning approaches applied to physiological signals can be found in [25] and [26]. 56 The current work focuses on the application of deep learning approaches for 57 nociceptive pain recognition based on physiological signals (EMG, ECG and 58 April 23, 2019 2/16 electrodermal activity (EDA)).…”
mentioning
confidence: 99%
“…Our simple attention model focuses on easy-identifiable parts of the face, known to be important [11,12,14]. CNN expected to use spatial-redundancy as in [23] and extract cross-correlations between signals like in multi-lead ECG [6].…”
Section: Methodsmentioning
confidence: 99%
“…Therefore features important to filter them out may differs for different heart rates. Also classification models (compared to regression ones, like used by Spetlik et al [28]) are mentioned to be effective for events detection (HR estimation is believed to be based on detection of a heartbeat events) even if the input is noisy [6].…”
Section: Methodsmentioning
confidence: 99%
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