Hyperchaos on the dynamics of memristive Tabu learning neuron model under influence of electromagnetic radiation: Application in biomedical data privacy

This paper presents a novel biological neural networks based on memristive Tabu learning neuron (MTLN) model influenced by electromagnetic radiation. Despite the model having an unstable equilibrium plane, numerical investigation without the influence of electromagnetic radiation reveal that when increasing the memristor strength induces complex phenomena, including the coexistence of infinite bubbles of bifurcations, offset plane coexistence of various attractors. Furthermore, electromagnetic radiation can significantly impact the system's behavior, giving rise to hyperchaotic dynamics. A decent understanding is seen between the mathematical outcomes, approved through trial execution on an Arduino microcontroller-based. The insights gained from neural dynamics could pave the way for applications in neuromorphic computing, engineering, and brain-machine interfaces. Based on the complex dynamics of the model, a data privacy of biomedical data has been build and reveals good results, and enable to resist to robust attacks.

Authors

Publication Details

Journal
Franklin Open
Published
2024-12-30
DOI
https://doi.org/10.1016/j.fraope.2024.100210
Citations
13
Primary Topic
stochastic dynamics and bifurcation
Type
article
Field-Weighted Citation Impact
3.66
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article

Hyperchaos on the dynamics of memristive Tabu learning neuron model under influence of electromagnetic radiation: Application in biomedical data privacy

Bertrand Frederick Boui A Boya, G. Djuidjé Kenmoé, Sishu Shankar Muni, Arnaud Nanfak et al.
13 citations
Franklin Open
stochastic dynamics and bifurcation
3.66
article

Hyperchaos on the dynamics of memristive Tabu learning neuron model under influence of electromagnetic radiation: Application in biomedical data privacy

Bertrand Frederick Boui A Boya, G. Djuidjé Kenmoé, Sishu Shankar Muni, Arnaud Nanfak, Jean De Dieu Nkapkop, Jacques Kengne, Babenko Lyudmila Klimentyevna
article en
13 citations

Abstract

This paper presents a novel biological neural networks based on memristive Tabu learning neuron (MTLN) model influenced by electromagnetic radiation. Despite the model having an unstable equilibrium plane, numerical investigation without the influence of electromagnetic radiation reveal that when increasing the memristor strength induces complex phenomena, including the coexistence of infinite bubbles of bifurcations, offset plane coexistence of various attractors. Furthermore, electromagnetic radiation can significantly impact the system's behavior, giving rise to hyperchaotic dynamics. A decent understanding is seen between the mathematical outcomes, approved through trial execution on an Arduino microcontroller-based. The insights gained from neural dynamics could pave the way for applications in neuromorphic computing, engineering, and brain-machine interfaces. Based on the complex dynamics of the model, a data privacy of biomedical data has been build and reveals good results, and enable to resist to robust attacks.

Franklin OpenVol. 10
Openalex Percentile: Top 6%
stochastic dynamics and bifurcation
3.66
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