6 June 2024Circumventing broken neural networks, both real and imaginary, through SPSF-based neural decoding and interconnected associative memory matrices
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In previous work we have introduced our (proposed) architecture that connects a ‘Real’ and ‘Imaginary’ Neural Network. The ‘Real’ portion is represented by exploiting Striatal Beat Frequencies in an EEG with the patented Single-Period Single-Frequency (SPSF) method and the ‘Imaginary’ is represented by a convolutional neural network transformed into bi-directional associative memory matrices. We demonstrated that we could interconnect, i.e., bridge, the intermediate layers of two broken CNNs both of which were trained for object detection and still make a good prediction. In this work we will use a dual sensory CNN implementation of speech and object detection and we will incorporate Neural Decoding into the EEG SPSF method to emulate how to circumvent the broken neural networks in a human-computer interface situation.
Conference Presentation
(2024) Published by SPIE. Downloading of the abstract is permitted for personal use only.
James LaRue
"Circumventing broken neural networks, both real and imaginary, through SPSF-based neural decoding and interconnected associative memory matrices", Proc. SPIE 13058, Disruptive Technologies in Information Sciences VIII, 130580E (6 June 2024); https://doi.org/10.1117/12.3014016
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James LaRue, "Circumventing broken neural networks, both real and imaginary, through SPSF-based neural decoding and interconnected associative memory matrices," Proc. SPIE 13058, Disruptive Technologies in Information Sciences VIII, 130580E (6 June 2024); https://doi.org/10.1117/12.3014016