In recent years, the need for systems capable of achieving the dynamic learning and information storage efficiency of the biological brain has led to the emergence of neuromorphic research. In particular, neuromorphic optics was born with the idea of reproducing the functional and structural properties of the biological brain. In this context, solitonic neuromorphic research has demonstrated the ability to reproduce dynamic and plastic structures capable of learning and storing through conformational changes in the network. In this paper, we demonstrate that solitonic neural networks are capable of mimicking the functional behaviour of biological neural tissue, in terms of synaptic formation procedures and dynamic reinforcement.
Photorefraction simulates well the plasticity of neural synaptic connections / Bile, Alessandro; Tari, Hamed; Pepino, Riccardo; Nabizada, Arif; Fazio, Eugenio. - In: BIOMIMETICS. - ISSN 2313-7673. - (2024).
Photorefraction simulates well the plasticity of neural synaptic connections
Alessandro Bile
Primo
Investigation
;Hamed TariSecondo
Membro del Collaboration Group
;Riccardo PepinoMembro del Collaboration Group
;Arif NabizadaPenultimo
Membro del Collaboration Group
;Eugenio FazioUltimo
Supervision
2024
Abstract
In recent years, the need for systems capable of achieving the dynamic learning and information storage efficiency of the biological brain has led to the emergence of neuromorphic research. In particular, neuromorphic optics was born with the idea of reproducing the functional and structural properties of the biological brain. In this context, solitonic neuromorphic research has demonstrated the ability to reproduce dynamic and plastic structures capable of learning and storing through conformational changes in the network. In this paper, we demonstrate that solitonic neural networks are capable of mimicking the functional behaviour of biological neural tissue, in terms of synaptic formation procedures and dynamic reinforcement.File | Dimensione | Formato | |
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