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240    CHAPTER 11 Deep Learning Approaches to Electrophysiological




                         also take advantage of engineered features derived from standard signal processing
                         methods, like frequency and time-frequency transforms. In recent years, the interna-
                         tional community has shown enormous interest in DL and artificial intelligence, by
                         funding several programs, in the public and private sectors. It is foreseen that these
                         programs will favor a relevant growth of economy and national gross value added.
                         However, in this chapter it has been shown that DL is just a contingent development
                         of ML and NN techniques originally proposed decades ago. This chapter focused on
                         a rather limited aspect of DL, namely the processing of multivariate time-series that
                         is relevant for biomedical applications but also pertinent to the future development
                         of IoT systems. The techniques here described can support a significant leap forward
                         in the real-time processing of unstructured data and in clinical diagnosis. Open
                         problems and limitations of DL have been discussed.




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